Chung Yuan Christian University

National Central University

Scinopharm Taiwan, Ltd.

Personal Genomics, Inc.

Orizhan Bioscience Limited

Wen-Yih Chen

Yung Chang

Ching-Wei Tsai

Ruoh-chyu Ruaan

Hsin-Yi Hsieh

Juin-Yih Lai

Jang-Zern Tsai

Yuh-Shyong Yang

Ruoh-Chyu Ruaan

Chun-Jen Huang

Li-Chiao Chang

Yu-Hsuan Peng

Hardy Wai-Hong Chan

Yen-Che Chiag

Akon Higuchi

Yan-Che Chiang

An oriented loading system is provided. The oriented loading system includes a substrate, a plurality of wells formed in the substrate, each well having a bottom and sidewalls, a plurality of particles loaded in the wells, wherein the particle comprises a core structure and an inner layer comprising magnetic material partially covering the core structure such that a part of the core structure uncovered by the inner layer is exposed, and a metal layer comprising magnetic material deposited partially in the sidewalls of the wells, wherein the inner layer is attracted by the metal layer such that the exposed core structure is oriented towards the bottom of the well or the inner layer is oriented towards the bottom of the well.

Oriented loading systems and method for orienting a particle loaded in a well

A method of using Neutrilized DNA (N-DNA) as a surface probe for a high throughput detection platform is disclosed. FET and SPRi are used as high throughput detection platforms to demonstrate that the N-DNA surface probe produces good results and enhances detection sensitivity. The N-DNA modifies the charged oxygen ions (O) on the phosphate backbone through methylation, ethylation, propylation, or alkylation, so that the backbone is not charged after this modification to increase the hybridization efficiency, sensitivity and to make the signal more clear.

Method of using neutrilized DNA (N-DNA) as surface probe for high throughput detection platform

The present invention provides an antibiofouling composition, an antibiofouling membrane and a method for forming the same. The antibiofouling composition comprises a copolymer and at least one solvent. The copolymer comprises at least one hydrophobic segment and at least one antibiofouling segment where the hydrophobic segment comprises a plurality of hydrophobic moieties and the antibiofouling segment comprises a plurality of antibiofouling moieties. The molar ratio of the total of hydrophobic moieties to the total of the antibiofouling moieties is 0.5&#x2dc;6.0.

Antibiofouling composition, antibiofouling membrane and method for forming the same

A method of purifying a compound from a mixture through a chromatographic column loaded with a column adsorbent. The method comprises:

Peptide chromatographic purification assisted by combining of solubility parameter and solution conformation energy calculations

The present invention discloses statistical antibiofouling nonionic-zwitterionic copolymers. The antibiofouling nonionic-zwitterionic copolymers are with the LCST (Lower Critical Solution Temperature) and/or UCST (Upper Critical Solution Temperature), and with increasing content of the nonionic monomers, the LCST and/or UCST of copolymers varies.

Antibiofouling nonionic-zwitterionic copolymer

An apparatus and a method for recognizing a person's gaze are disclosed, where the apparatus includes a main body, an eye-movement detector, a data generator and a transmitter, where the main body has the specific area. The eye-movement detector can detect whether a gaze is fixed on the specific area. The data generator can generate gaze data when the gaze is fixed on the specific area. The transmitter can transmit the gaze data to terminal equipment, so that the terminal equipment can receive information that the gaze is fixed on the specific area based on the gaze data, so that the terminal equipment can provide a prompt based on the gaze data.

Apparatus and method for recognizing a person's gaze

The present invention discloses a method for forming a low biofouling filtration membrane. First, an ozone treatment is performed to a fluorine-based porous membrane to introduce peroxides on surface. Afterwards, a first grafting polymerization is initiated from the peroxides, and functional monomers are polymerized to introduce halide groups on surface. Finally, a second grafting polymerization is initiated from the halide groups, and macro-monomers are polymerized to introduce zwitterionic group on surface, so as to form the low biofouling filtration membrane.

Low biofouling filtration membranes and their forming method

Growing community of inventors

Taoyuan, Taiwan

Wen-Yih Chen