Taiwan Textile Research Institute

National Taiwan University

Academia Sinica

Elan Microelectronics Corporation

Moxa Inc.

Wei-Ming Chen

Sheng-Jen Lin

Wei-Peng Lin

Nai-Yun Liang

Ying-Hsiu Hsiao

Tei-Wei Kuo

Wei-Wen Yang

Pi-Cheng Hsiu

Po-Hsien Tseng

Chin-Chiang Pan

An ejecting mechanism is provided and includes a main body, a driving component and a driven component. The main body is slidable relative to a casing. The driving component and the driven component are pivotable relative to the main body. When the driving component switches from a first position to a second position, the driving component drives the driven component to switch from a third position to a fourth position. During a process that the driving component and the driven component respectively switch from the first position and the third position to the second position and the fourth position, the driving component and the driven component respectively push two opposite lateral walls of the casing to drive the main body to slide from an installation position to a detachment position relative to the casing. Furthermore, an electronic device with the aforementioned ejecting mechanism is provided.

Ejecting mechanism and detachable device with the aforementioned ejecting mechanism

A resource allocation method adapted to a mobile device having a multi-core central processing unit (CPU) is provided. The CPU executes at least one application. The method includes steps as follows. A usage status of each of the at least one application is obtained according to a level of concern of a user for each of the at least one application. A sensitivity of at least one thread of each of the at least one application is determined according to the usage status of each of the at least one application. Resources of the CPU are allocated according to the sensitivity of the at least one thread run by the cores.

Resource allocation method

An input module is mounted on a portable electronic device and has a sensing substrate and a cover lens mounted on a top surface of the sensing substrate, a physical switch mounted on and electrically connected to a bottom surface of the sensing substrate, and a flexible bridging board having two opposite short sides respectively protruding from two short sides of the sensing substrate for the two short sides of the flexible bridging board to be mounted on the electronic device. As the two short sides of the input module are mounted on the electronic device and a lever arm between a pressed point to a fixed point of the input module is shortened, a torque applied to the input module is lowered and the input module is not easily deformed.

Portable electronic device and an input module and a flexible bridging board thereof

Disclosed herein is a method for preparing a near infrared shielding fiber. The method includes the steps of preparing and compounding a composition, then pelletizing the compounded composition to obtain the near-infrared shielding masterbatch, and melt spinning the near-infrared shielding masterbatch into the near-infrared shielding fiber. The composition includes at least one metallic ionic compound powder in an amount of about 1-25 wt %, a cross-linking agent in an amount of about 0.1-2 wt %, a thermoplastic polymer in an amount of about 67-98.7 wt %, a cross-linking initiator in an amount of about 0.1-1 wt %, and a dispersing agent in an amount of about 0.1-2 wt %.

Composition and process for preparing NIR shielding masterbatch and NIR shielding masterbatch and application thereof

Disclosed herein is a method for preparing a near infrared shielding masterbatch. The method includes the steps of preparing and compounding a composition, and then pelletizing the compounded composition. The composition includes at least one metallic ionic compound powder in an amount of about 1-25 wt %, a cross-linking agent in an amount of about 0.1-5 wt %, a thermoplastic polymer in an amount of about 67-98.7 wt %, an initiator in an amount of about 0.1-1 wt %, and a dispersing agent in an amount of about 0.1-2 wt %.

Disclosed herein is a composition for preparing a non-dripping flame retarding masterbatch. The flame retarding masterbatch includes a fire retardant in an amount of about 0.1-15.0 wt %, a crosslinking agent in an amount of about 0.1-1.5 wt %, a thermoplastic polymer in an amount of about 76.5-99.5 wt %, a crosslinking initiator in an amount of about 0.01-2.0 wt %, and a dispersing agent in an amount of about 0.1-5.0 wt % in the composition.

Non-dripping flame retarding masterbatch, composition and process for preparing the same and flame retarding article containing the same

Disclosed herein are methods for preparing non-dripping flame retarding masterbatches and filamentous non-dripping flame retarding materials. First, an admixture including a flame retardant, a crosslinking agent, a thermoplastic polymer, and a dispersing agent is prepared, and then a crosslinking initiator is added into the admixture to form a composition which is then compounded and pelletized to obtain the non-dripping flame retarding masterbatch. The resultant non-dripping flame retarding masterbatch is suitable for use in a spinning process to obtain filamentous non-dripping flame retarding materials.

Growing community of inventors

Taipei, Taiwan

Wei-Ming Chen