Abstract: A surface measurement system is configured to measure a sample with a low reflectivity surface. The surface measurement system includes a condensation device and a measurement device. The condensation device is configured to form a liquid layer on the surface of the sample. The condensation device includes a chamber, a temperature controlling gas source, and a humidification gas source. The chamber is configured to accommodate the sample. The temperature controlling gas source is connected to the chamber to provide temperature controlling gases to the chamber, so as to control the temperature of the sample. The humidification gas source is connected to the chamber to provide water vapor to the chamber, so as to form the liquid layer on the surface of the sample. The measurement device includes a plate, a light source, and an image capturing device.

Abstract: A multi-function apparatus includes a scanning module, a storage module, a printing module and an image processing module electrically connected to the scanning module, the storage module and the printing module. The scanning module is for scanning a scanned object to generate a scanning image having an object graphic corresponding to the scanned object. The storage module is for storing the scanning image. An identification unit of the image processing module is for identifying the object graphic from the scanning image stored in the storage module to obtain a size of the object graphic. A control unit of the image processing module controls the printing module to printing the object graphic onto a predetermined position at a printing medium when the control unit determines that the size of the object graphic is less than a canvas size of the printing medium.

Abstract: An electronic device for aligning orientations of scanning images includes a scanning module, a storage module, an identification module, a timing unit, an alignment module, and a control unit. The control unit controls the scanning module to scan N scanned objects at different times and to store N scanning images corresponding to the N scanned objects into the storage module. The control unit controls the identification module to identify orientations of the N scanning images. The control unit controls the timing unit to calculate time intervals among the N scanning images. The control unit determines whether to control the alignment module to align orientations of a second scanning image to an Nth scanning image of the N scanning images with orientation of a first scanning image of the N scanning images according to the time intervals among the N scanning images calculated by the timing unit.

Abstract: A method for inspecting a solar cell and configured to inspect a peeling state of a three-dimensional pattern of the solar cell includes obliquely illuminating the three-dimensional pattern of the solar cell using a light beam. An image of the solar cell is normally captured. An intensity of the light beam is increased to increase a contrast between the three-dimensional pattern and a shadow of the three-dimensional pattern in the image and increase a contrast between an ink pattern of the solar cell and the shadow in the image to overexpose the ink pattern in the image. Determine if the three-dimensional pattern is peeling according to the shadow of the three-dimensional pattern in the image.

Abstract: An automatic fluorescence detection system includes a base and an optical assembly. The base has a detecting region. The optical assembly includes a fluorescent image-capturing device, an illumination device and a field lens. The illumination device includes a first annular illumination module and a second annular illumination module surrounding a center axis of the fluorescent image-capturing device. Lights emitted by the first annular illumination module and the second annular illumination module travel along a light-traveling path to project onto the detecting region. A distance between the first annular illumination module and the center axis is smaller than that between the second annular illumination module and the center axis. The field lens is disposed in correspondence with the detecting region. Spacing between the field lens and the detecting region is ranged from 15.0 cm to 30.0 cm.

Abstract: A portable image capture device includes a main body, an image capture assembly and a handle assembly. The main body includes a top side, a bottom side disposed opposite the top side, and an internal space disposed between the top side and the bottom side. The image capture assembly disposed on the top side faces the bottom side and performs image capturing. The handle assembly includes a handle part and a start button disposed beside the handle part. The handle assembly is disposed on the main body so that a user uses one single hand to operate the portable image capture device and control image capturing timings.

Abstract: An image integrated printing system includes an image capturing device, a host device, and a printing device. The image capturing device is for capturing an image of an object. The host device is electrically connected to the image capturing device and includes a storage unit, a recognition unit, and a processing unit. The storage unit is for storing the image transmitted from the image capturing device and a form. The recognition unit is for recognizing a field corresponding to the image from the form. The processing unit is electrically connected to the storage unit and the recognition unit and for combining the image with the field corresponding to the image to generate an output file. The printing device is electrically connected to the host device and for printing the output file.

Abstract: A portable image capturing electronic device includes a main body, an image capturing lens assembly and a light source assembly. An accommodating chamber is disposed inside the main body. The accommodating chamber includes a top portion and a bottom portion disposed opposite to each other. The image capturing lens assembly is disposed on the top portion and faces toward the bottom portion to capture an image corresponding to an object disposed at the bottom portion. The light source assembly includes a plurality of first light sources. The light source assembly is disposed on the top portion, and the plurality of first light sources face toward the bottom portion to provide illumination for the object and are disposed nearby the image capturing lens assembly. The present application facilitates illumination control when capturing the image, which can effectively reduce errors in image processing.

Abstract: A surface measurement system is configured to measure a sample with a low reflectivity surface. The surface measurement system includes a condensation device and a measurement device. The condensation device is configured to form a liquid layer on the surface of the sample. The condensation device includes a chamber, a temperature controlling gas source, and a humidification gas source. The chamber is configured to accommodate the sample. The temperature controlling gas source is connected to the chamber to provide temperature controlling gases to the chamber, so as to control the temperature of the sample. The humidification gas source is connected to the chamber to provide water vapor to the chamber, so as to form the liquid layer on the surface of the sample. The measurement device includes a plate, a light source, and an image capturing device.

Abstract: The present disclosure provides a transmission assembly and an office machine comprising the same. The transmission assembly includes a body, a first roller, a second roller, a flexible element, a third roller and a transmission element. The first roller is pivoted at a first position of the body, the second roller is pivoted at a second position of the body, one end of the flexible element connects to the body, the third roller is pivoted besides the first roller in parallel and rotates with the first roller simultaneously, and a transmission element is used to surround axes of the first roller and the second roller; wherein, the rotating directions of the first roller, the second roller, the third roller and the transmission element are the same. The present disclosure provides another office machine using the same.

Abstract: A touch display module is for controlling a printing module and a scanning module. The scanning module is for at least scanning a first side of a scanned object to generate a first image corresponding to the first side of the scanned object. The touch display module includes a touch display panel and a control unit. The touch display panel at least includes a first section for displaying a first pattern corresponding to the first image and generating a first touch signal. The control unit controls the first section to display the first pattern corresponding to the first image when the control unit receives the first image transmitted from the scanning module. The control unit controls the printing module to print the first image according to the first touch signal when the control unit receives the first touch signal transmitted from the first section.

Abstract: A method for inspecting a solar cell and configured to inspect a peeling state of a three-dimensional pattern of the solar cell includes obliquely illuminating the three-dimensional pattern of the solar cell using a light beam. An image of the solar cell is normally captured. An intensity of the light beam is increased to increase a contrast between the three-dimensional pattern and a shadow of the three-dimensional pattern in the image and increase a contrast between an ink pattern of the solar cell and the shadow in the image to overexpose the ink pattern in the image. Determine if the three-dimensional pattern is peeling according to the shadow of the three-dimensional pattern in the image.

Abstract: The present invention relates to a reusable water writing paper, as well as to its production process and an inkless printing device thereof. The reusable water writing paper is consisted of a substrate as structure-support material, a color-displaying component supported on the substrate, and an optional performance-enhancing additive, wherein the color-displaying component is an oxazoline-based hydrochromic dye, which can change color obviously to display characters and/or patterns after contacting with water, and revert to the initial color to disappear the displayed characters and/or patterns after the water is removed, thereby the water writing paper is reusable. The paper is not only suitable for the exercise of writing or drawing with a brush pen, but also can be used for daily writing with a pen. Furthermore, inkless printing also can be achieved by spraying water.

Abstract: A light sensing apparatus includes a sheet passage, a first sensing assembly and a first background sheet. The sheet passage has a scan window. The first sensing assembly disposed on a first side of the scan window outputs first scan light to the scan window. The first background sheet disposed on a second side of the scan window has a first reflective surface reflecting the first scan light, passing through the scan window, back to the first sensing assembly through the scan window. The first reflective surface of the first background sheet and the scan window are disposed in a non-parallel manner. Therefore, a light sensing method is also provided to achieve the effects of brightness calibration and boundary detection of the first sensing assembly.

Abstract: A scanning device comprises a scan assembly, a control processor and an output interface. The scan assembly comprises two scanner modules for scanning front and reverse sides of a data medium to obtain front side analog data and reverse side analog data. The control processor electrically connected to the scan assembly controls the scan assembly, and executes an analog-to-digital converting process to convert the front side analog data and the reverse side analog data into front side digital data and reverse side digital data. The output interface electrically connected to the control processor outputs even sets of digital data, comprising the front side digital data and the reverse side digital data, to an image forming apparatus, so that the image forming apparatus performs even-set data typesetting and outputting after the even sets of digital data are completely outputted. An image forming system using the scanning device is also disclosed.

Abstract: An information security management system and a multifunction printer thereof are provided. The multifunction printer includes an image capturing module, an image processing module, an output module and a transmission module. The image capturing module captures a data image of a document paper. The image processing module is coupled to the image capturing module and encodes the data image to generate first encoded data. The output module is coupled to the image processing module and prints second encoded data related to the data image. The transmission module is coupled to the image processing module and transmits one of the first and second encoded data. The multifunction printer deletes the first encoded data from a memory after transmitting the first encoded data, and deletes the second encoded data from the memory after transmitting/outputting the second encoded data.

Abstract: A printing precision calibrating structure includes image forming assemblies, a transmission path and a linear image sensor. The image forming assemblies arranged in order generate image forming substances. The transmission path allows the image forming substances to pass. The linear image sensor is disposed downstream of the image forming assemblies. The image forming assemblies generate the image forming substances transmitted within the transmission path. The linear image sensor detects the image forming substances, provided by the image forming assemblies, for printing precision calibrating. A printing precision calibrating method is also provided.

Abstract: The disclosure provides a scanning device including a flatbed scanner and an ADF. The flatbed scanner includes a first body, a transparent substrate disposed on top surface of the first body, a first film disposed on top surface of the transparent substrate, and an image capturing module disposed under bottom surface of the transparent substrate. The ADF includes a second body, a backplane disposed at bottom of the second body for covering top surface of the flatbed scanner, a paper passage disposed inside the ADF, and a second film. An open portion is configured in the paper passage corresponding to top surface of the transparent substrate, and results communication between the paper passage and top surface of the transparent substrate. The second film is disposed at paper entrance of the open portion. Wherein, the first film and the second film are not overlap on top surface of the transparent substrate.