Abstract: Provided are a composition and a method for preventing thrombogenesis. The composition includes a conjugate of heparin and a viral capsid protein, wherein the heparin is covalently bonded with the viral capsid protein.

Abstract: Provided are a system and a method for prediction of an intradialytic adverse event, where a machine learning model of two-class classification is utilized to predict intradialytic adverse events in quasi-real time, such that features extracted in an ongoing hemodialysis process in real time can have the hemodialysis session alerted for forthcoming adverse events. Therefore, clinicians can be warned to take necessary actions and adjust the hemodialysis machine settings in advance. In addition, a computer readable medium thereof is also provided.

Abstract: A current collector protective glue includes a solvent and an adhesive. The solvent is selected from one or more of water, ethanol, NMP, acetone, and butanone. The adhesive is selected from one or more of cellulose, polyacrylic acid, styrene-butadiene rubber, styrene butadiene rubber, and nitrile rubber.

Abstract: Provided are a system and a method for prediction of an intradialytic adverse event, where a machine learning model of two-class classification is utilized to predict intradialytic adverse events in quasi-real time, such that features extracted in an ongoing hemodialysis process in real time can have the hemodialysis session alerted for forthcoming adverse events. Therefore, clinicians can be warned to take necessary actions and adjust the hemodialysis machine settings in advance. In addition, a computer readable medium thereof is also provided.

Abstract: A projecting apparatus is provided, and includes a frame, a light source module, and a microelectromechanical systems (MEMS) module. The frame includes two lateral boards respectively arranged on two opposite sides thereof, and a transverse beam that connects the two lateral boards. Each of the two lateral boards has a guiding slot recessed in a portion thereof. The MEMS module is configured to transmit light emitted from the light source module, and includes a flexible circuit board, a first MEMS unit, and a second MEMS unit, the latter two of which are connected to the flexible circuit board. The first MEMS unit is inserted into the guiding slots of the two lateral boards. The second MEMS unit abuts against the two lateral boards and/or the transverse beam. The first MEMS unit and the second MEMS unit have a predetermined angle there-between by the second frame portion.

Abstract: A projecting apparatus is provided, and includes a frame, a light source module, at least one collimator lens, at least one adhesive, and a microelectromechanical systems (MEMS) module. The frame includes a first frame portion and a second frame portion. The first frame portion has a carrier and a carrying bridge having an end connected to the carrier. The frame has a processing slot that uses the carrying bridge as a bottom thereof, and the carrying bridge has at least one thru-hole that is in spatial communication with the processing slot. The second frame portion is connected to the carrier and another end of the carrying bridge of the first frame portion. The at least one adhesive corresponds in position to the at least one thru-hole, and connects the at least one collimator lens onto the carrying bridge. The MEMS module is disposed on the second frame portion.

Abstract: A projecting apparatus is provided, and includes a frame, a light source module, and a microelectromechanical systems (MEMS) module. The frame includes two lateral boards respectively arranged on two opposite sides thereof, and a transverse beam that connects the two lateral boards. Each of the two lateral boards has a guiding slot recessed in a portion thereof. The MEMS module is configured to transmit light emitted from the light source module, and includes a flexible circuit board, a first MEMS unit, and a second MEMS unit, the latter two of which are connected to the flexible circuit board. The first MEMS unit is inserted into the guiding slots of the two lateral boards. The second MEMS unit abuts against the two lateral boards and/or the transverse beam. The first MEMS unit and the second MEMS unit have a predetermined angle there-between by the second frame portion.

Abstract: A projecting apparatus is provided, and includes a frame, a light source module, at least one collimator lens, at least one adhesive, and a microelectromechanical systems (MEMS) module. The frame includes a first frame portion and a second frame portion. The first frame portion has a carrier and a carrying bridge having an end connected to the carrier. The frame has a processing slot that uses the carrying bridge as a bottom thereof, and the carrying bridge has at least one thru-hole that is in spatial communication with the processing slot. The second frame portion is connected to the carrier and another end of the carrying bridge of the first frame portion. The at least one adhesive corresponds in position to the at least one thru-hole, and connects the at least one collimator lens onto the carrying bridge. The MEMS module is disposed on the second frame portion.

Abstract: A method for executing access control over an electronic device includes: detecting a position information of the electronic device with a positioning module; determining whether the electronic device has moved outside an authorized region according to the position information; and disabling a plurality of accessible functions of the electronic device according to a user information when the electronic device has moved outside the authorized region.

Abstract: A method for executing access control over an electronic device includes: detecting a position information of the electronic device with a positioning module; determining whether the electronic device has moved outside an authorized region according to the position information; and disabling a plurality of accessible functions of the electronic device according to a user information when the electronic device has moved outside the authorized region.

Abstract: A system includes: a first converter for receiving a pre-stage input DC voltage from a power source, and providing a pre-stage output DC voltage including a first DC voltage or a second DC voltage; a modulator the modulator controlling the first converter; a second converter, coupled to the first converter; and a controller, the controller controlling an operation mode of the second converter and notifying the modulator about the operation mode of the second converter. The modulator and the controller receive an external voltage indication signal indicating whether the pre-stage output DC voltage is the first DC voltage or the second DC voltage. The modulator controls the first converter to output the pre-stage output DC voltage based on the voltage indication signal. The modulator notifies the controller about whether the pre-stage output DC voltage reaches a target level.

Abstract: The preset invention provides a frame structure, a display device with the frame structure, and a method of fabricating the display device. The frame structure includes a first frame and a second frame. The first frame includes two lateral portions opposite to each other, and a top portion and a bottom portion opposite to each other. A first engaging component is disposed on the lateral portion. The second frame is disposed around the first frame. The second frame includes a top plank and two lateral planks. The top plank is disposed corresponding to the top portion, and the lateral plank is disposed corresponding to the lateral portion. A second engaging component is disposed on the lateral plank. The second engaging component is slidably engaged with the first engaging component. Thus, the present invention can decrease thickness of the frame structure and the display device for preferable aesthetic and low cost.

Abstract: The present invention provides a method for treating, preventing or reducing peritoneal fibrosis comprising administering to a subject in need thereof a pharmacologically effective dose of a type I cannabinoid receptor (CB1R) antagonist or a type II cannabinoid receptor (CB2R) agonist. Also provided is a dialysis fluid for treating, preventing or reducing peritoneal fibrosis comprising electrolytes, an osmotic agent, a physiologically acceptable pH solution, and a pharmacologically effective dose of a CB1R antagonist or a CB2R agonist.

Abstract: A system includes: a first converter for receiving a pre-stage input DC voltage from a power source, and providing a pre-stage output DC voltage including a first DC voltage or a second DC voltage; a modulator the modulator controlling the first converter; a second converter, coupled to the first converter; and a controller, the controller controlling an operation mode of the second converter and notifying the modulator about the operation mode of the second converter. The modulator and the controller receive an external voltage indication signal indicating whether the pre-stage output DC voltage is the first DC voltage or the second DC voltage. The modulator controls the first converter to output the pre-stage output DC voltage based on the voltage indication signal. The modulator notifies the controller about whether the pre-stage output DC voltage reaches a target level.

Abstract: An edge type light source module has at least one middle light emitting region and edge light emitting region and includes a first edge type light emitting device and a second edge type light emitting device. If the middle light emitting region is a lighting region having a brightness value L1, the edge light emitting region adjacent to the lighting region is a light leakage region. The light leakage region has a predetermined brightness value L2, and a compensation brightness value L2? of the light leakage region satisfies L2?=L2?(L1*k1*R1), 0?k1?1, and 20%?R1?60%. If the edge light emitting region is a lighting region having a brightness value L3, the middle light emitting region adjacent to the lighting region is a light leakage region. The light leakage region has a predetermined brightness value L4, and a compensation brightness value L4? of the light leakage region satisfies L4?=L4?(L3*k2*R2), 0?k2?1, and 10%?R2?50%.

Abstract: An edge type light source module has at least one middle light emitting region and edge light emitting region and includes a first edge type light emitting device and a second edge type light emitting device. If the middle light emitting region is a lighting region having a brightness value L1, the edge light emitting region adjacent to the lighting region is a light leakage region. The light leakage region has a predetermined brightness value L2, and a compensation brightness value L2? of the light leakage region satisfies L2?=L2?(L1*k1*R1), 0?k1?1, and 20%?R1?60%. If the edge light emitting region is a lighting region having a brightness value L3, the middle light emitting region adjacent to the lighting region is a light leakage region. The light leakage region has a predetermined brightness value L4, and a compensation brightness value L4? of the light leakage region satisfies L4?=L4?(L3*k2*R2), 0?k2?1, and 10%?R2?50%.

Abstract: A buck-store and boost-restore converter is to be electrically connected to a pre-stage circuit, which provides a pre-stage output direct current (DC) voltage to a first capacitive load. The converter has an inductance element and is to be electrically connected to a second capacitive load. When the pre-stage output DC voltage is reduced from a first DC voltage to a second DC voltage, the inductance element outputs a current to the second capacitive load so as to transfer electric energy, which is stored in the first capacitive load, to the second capacitive load. When the pre-stage output DC voltage is raised from the second DC voltage to the first DC voltage, the inductance element outputs a current to the first capacitive load so as to transfer electric energy, which is stored in the second capacitive load, to the first capacitive load.