Industrial Technology Research Institute

Sheng-Li Chang

Tzuan-Ren Jeng

Feng-Hsiang Lo

Jung-Po Chen

Chin-Tien Yang

Ming-Fang Hsu

Kuo-Chi Chiu

Chih-Hung Huang

Chun-Chieh Huang

Kuo-Tung Tiao

Jyh-Chern Chen

Rung-Ywan Tsai

Chi-Shen Chang

Yuan-Chin Lee

Lung-Pin Chung

Chir-Weei Chang

Kuo-Yao Weng

An-Tse Lee

Hung-Chih Chiang

Che-Kuo Hsu

Yen-Chang Wang

Tai-Ting Huang

Chung-Ta Cheng

Chih-Ching Liao

Chih-Ming Cheng

Chin-Sen Chen

Miao-Chang Wu

Ji-Wen Kuo

Yuan-Fa Lee

A sample classification device including a carrier, a first detection module, and a sample pipeline is provided. The first detection module includes a first light-emitting device, a second light-emitting device, and a first optical sensing device. The first light emitting device is located on the carrier and used to emit light of a first wavelength. The second light emitting device is located on the carrier and used to emit light of a second wavelength. The first wavelength is different from the second wavelength. The first optical sensing device is located on the carrier and between the first light emitting device and the second light emitting device. The sample pipeline is located above the carrier and passes above the first optical sensing device.

Sample classification device, sample classification system, and sample classification method

A method for evaluating skin tissue includes: obtaining a tomographic image of skin; performing a quantization process for quantizing brightness values of the tomographic image of skin to generate a quantized image; performing a binarization process on the brightness value of each image point in the quantized image according to a first threshold interval to generate a first filtered image; performing the binarization process on the brightness value of each image point in the quantized image according to a second threshold interval to generate a second filtered image; obtaining a first estimated tissue boundary according to the distribution of the bright spots in the first filtered image; obtaining a second estimated tissue boundary according to the distribution of the bright spots in the second filtered image; estimating a thickness of skin tissue according to a difference between the first and second estimated tissue boundaries.

Method for evaluating skin tissue and system using the same

A carrier with the optical registration function is disclosed. The carrier allows the registration of inspected results of the sampling images of the sample to the corresponding address codes of the address coding site of the carrier.

Optical registration carrier

An optical recoding carrier and an information recording method applying an amplitude shift keying (ASK) method or further a DC-biased ASK method are provided, wherein at least one periodically undulated section and at least one non-periodically undulated section are formed on the optical recording carrier to indicate specific information. The information recording method can be embodied as an addressing method of an optical disk for recording address information of tracks of the optical disk. A continuous track structure is provided on the optical recording carrier to save the available recording space and improve the information reading precision of the optical recording carrier. Furthermore, a signal generating apparatus and an information reading apparatus applied in the information recording method are provided.

Optical recording carrier, signal generating apparatus, information recording method, and information reading apparatus

A method for fabricating a disc stamper is provided. First, a substrate is provided. Next, a layer of a coatable inorganic material is coated on the substrate, wherein the coatable inorganic material is an oxide, in which the chemical element constitution is more than one element selected from the group consisting of Te, Al, Zr, and Ti. Next, a laser beam is utilized to perform direct write on the layer of the coatable inorganic material to form a relief pattern. Thereafter, a metal layer is electroplated on the relief pattern. Next, the metal layer is separated from the relief pattern. The layer of the coatable inorganic material is utilized to form the relief pattern, so that it is more compatibility to equipment apparatus and lower cost in contrast with sputtered PTM process.

Laser patterning method for fabricating disc stamper

A coatable inorganic material is provided, which is suitable for being coated on a substrate in the form of sol-gel solution and then being directly written with thermochemical mode by using a laser beam. The coatable inorganic material is an oxide, in which the chemical element constitution is more than one element selected from Te, Al, Zr, and Ti.

Method of forming pattern by utilizing coatable inorganic material

A recording media data structure includes a first recording layer having a lead-in area, a first user region successive to a physical sector of the lead-in area and for storing user data, and a first jump region successive to a physical sector of the first user region; a second recording layer stacked on the first recording layer, the second recording layer having a second jump region, a second user region successive to a physical sector of the second jump region and for storing user data, and a guide-out region successive to a physical sector of the second user region; wherein the lead-in area, the first jump region, the second jump region and the guide-out region each have a constant number of physical sectors, and the second jump region has a beginning physical sector successive to an ending physical sector of the first jump region.

Recording media data structure and method of reading data recorded in recording media

An inorganic resist material is provided, which is an incomplete oxide of a phase-change material. The oxygen content in the inorganic resist material is lower than the stoichiometric oxygen content of a complete oxide of the phase-change material, and a general formula of the inorganic resist material is AO, in which A represents the phase-change material, and x is between 5 at. % and 65 at. %. The inorganic resist material can be used to form line patterns or recording pits with size smaller than the exposure light spot by using the laser of conventional lithography process as an exposure source.

Inorganic resist material and nano-fabrication method by utilizing the same

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Hsinchu County, Taiwan

Sheng-Li Chang