Abstract: A novel low dropout regulator (LDO) is presented. The LDO includes the generation of a first feedback signal and a second feedback signal. The first feedback signal and a reference signal connect to a first error amplifier. The second feedback signal and the first error amplifier output signal connect to a second error amplifier. The output signal from the second error amplifier is coupled to the gate of a FET transistor. The FET transistor can be either a p-channel FET transistor, an n-channel FET transistor, a NMOS pass transistor, or a PMOS pass transistor. The positive input terminal or the negative input terminal of the first amplifier or of the second amplifier therefore need to be configured accordingly. When the source of the FET transistor is connected to the input voltage VIN, the drain of the FET transistor is the output voltage VOUT; when the drain of the FET transistor is connected to the input voltage VIN, the source of the FET transistor is the VOUT.

Abstract: A novel method to generate a feedback signal in a switching regulator is presented. The method includes the generation of a first feedback signal using the switching signal. The first feedback signal carries a ripple and the ripple is in phase with the switching signal. The first feedback signal does not use a control-in terminal PIN. The voltage level of the first feedback signal is regulated through a resistor and a capacitor connected between the switching node and the switching regulator controller. In an alternative method, a second feedback signal is generated using the regulator output voltage. The controller receives the second feedback through a control-in terminal PIN. In the alternative method, another resistor and another capacitor are used to connect the first feedback signal and the second feedback signal. Furthermore, the second feedback signal can adjust the regulator output voltage through two resistors connected in series.

Abstract: The provided are a method and system for monitoring one or more physiological characteristic based on WBAN. The method includes: an node of a micro-network for monitoring the human body acquires physiological characteristic information of the human body; and a hub of the micro-network for monitoring the human body recognizes at least one identifier for identifying a physiological status of the human body according to the acquired physiological characteristic information of the human body, and selects, according to the at least one identifier for identifying the physiological status of the human body, whether to send the physiological characteristic information of the human body to a medical monitoring system terminal via a wireless network or not. According to the method, sign information of the monitored human body may be mastered in first time to provide a strong basis for subsequent treatment.

Abstract: The present invention provides a method of producing a topping hanger comprising: (a) inspecting raw materials; (b) calculating a formula; (c) mixing uniformly; (d) dehumidifying the raw materials; (e) injection molding a colored mixed body: introducing the dehumidified raw materials into an injection molding machine at temperature 200-350° C., and the colored mixed body being produced by injecting molding after adjusting parameters of molds; (f) injection molding a transparent exterior body: a transparent PET and acrylics being formed of the transparent exterior body outside of the colored mixed body by injection molding at temperature 200-350° C.; and (g) packing the products. The transparent exterior body fully coats with the colored mixed body via injection molding, and this feature effectively enhances quality and visual effect, and chemical and color stability of the products, and reduces the cost. The present invention reduces damage during objects with colors contacting human.

Abstract: The present invention discloses a gasoline efficacy promoter (GEP) boosting combustion efficiency of gasoline in internal combustion engines by a mechanism of micro-dissociation comprising a microemulsion of modified bio-carbon, a surfactant, water, a modified vegetable oil and a dispersant, and a method of making it. The gasoline efficacy promoter, environmentally friendly and stable for longer than six months, can increase the combustion efficiency by more than 10%, and reduce 80% of NOx formation in exhaust emission when an appropriate dosage is added to a fuel tank in a vehicle.

Abstract: A method of manufacturing Ce:YAG polycrystalline phosphor with the formula (Y1-x-mAxCem)3(Al1-yBy)5O12; 0?x?1, 0?y?1, 0?m?0.05; wherein A is one of Lu, Tb, Pr, La and Gd; and wherein B is one of Ga, Ti, Mn, Cr and Zr.

Abstract: The present invention discloses a gasoline efficacy promoter (GEP) boosting combustion efficiency of gasoline in internal combustion engines by a mechanism of micro-dissociation comprising a microemulsion of modified bio-carbon, a surfactant, water, a modified vegetable oil and a dispersant, and a method of making it. The gasoline efficacy promoter, environmentally friendly and stable for longer than six months, can increase the combustion efficiency by more than 10%, and reduce 80% of NOx formation in exhaust emission when an appropriate dosage is added to a fuel tank in a vehicle.

Abstract: The present invention relates to a white light LED lamp and a filament. The white light LED filament comprises light emitting units and a strip-shaped fluorescent wafer(s) at least positioned at one side of the light emitting units, wherein the light emitting units are blue-emitting chips connected by a metal wire or an electric conductive circuit, and wherein electrodes are arranged at the end(s) of the fluorescent wafer. Without any lens, the filament of the present invention has a simple structure. A white light LED lamp using the filament realizes a 360° stereo-luminescence, and shows the advantages of low cost, excellent heat radiation, high luminous efficacy and so on.

Abstract: The present invention relates to a novel white light LED packaging structure and a process for manufacturing the same. An anti-blue light reflection film(s) is deposited on one surface of a fluorescent wafer, wherein the surface is attached to a blue-emitting chip. The anti-blue light reflection film(s) on the wafer can effectively prevent the incident blue light from reflecting on the surface of the wafer, increase the availability of the blue light and reduce the reflection loss of yellowish green light in the direction towards the chip, and thereby improving the whole luminous efficacy of the device. The white light LED packaging structure of the present invention has high fluorescence efficiency, and is suitable for applying in high-power white light LED illumination field.

Abstract: The present invention relates to a Ce:YAG wafer-based composite structure comprising a Ce:YAG wafer and a red light emitting layer fixed on the Ce:YAG wafer. The present invention also relates to a method for the preparation of the Ce:YAG wafer-based composite structure. The optical composite structure realizes a wide waveband luminescence from green light to red light, and can be widely used in the fields of detection equipment and illumination devices.

Abstract: An LED integrated packaging structure is disclosed including a base; at least one LED chip which is fixedly connected on the base, the LED chip having positive and negative electrodes; an insulation layer which is disposed on surfaces of the base and the LED chip and the, wherein surfaces of the positive and negative electrodes of the LED chip are exposed from the insulation layer; at least two connecting electrodes which are disposed on the base and the LED chip.

Abstract: An evaporating device comprises a gas guiding element, an evaporating boat received in the gas guiding element to define a receiving space between the evaporation tray and the gas guiding element, and a gas channel. The evaporation tray comprises a bottom wall and two opposing first sidewalls and two opposing second sidewalls extending from the periphery of the first bottom wall. At least one of the first sidewalls and/or at least one of the second sidewalls defines a number of gas holes. The gas holes communicate with the receiving space. One end of the gas channel connects the gas guiding element and communicates with the receiving space to feed gas into the receiving space. A vacuum evaporation device using the evaporating device is also provided.

Abstract: A device for making nano-scale particles of titanium dioxide includes a vacuum chamber; an evaporator, a gas supplier, a vacuum pump assembly, and a product collecting device. The evaporator is mounted in the vacuum chamber. The gas supplier communicates with the vacuum chamber. The vacuum pump assembly communicates with the vacuum chamber. The product collecting device includes a pump, a guide pipe connected with the pump, and a powder collector communicating with the guide pipe. The pump communicates with the vacuum chamber. The guide pipe is inserted in the powder collector, the powder collector is filled with organic solvents. A method of making nano-scale particles of titanium dioxide using the device is also provided.

Abstract: A novel method to operate a switching regulator is presented. The method includes the generation of at least two reference signals. A first reference signal is a constant DC voltage signal and a second reference signal is a periodic ramp sawtooth signal at a given frequency. It also includes the generation of a feedback signal by using the output voltage of the switching regulator. In one method, a capacitor is either charged by a bias current or discharged by a switch. A first comparator is configured to compare a first constant DC reference voltage signal to a feedback signal. A second comparator is configured to compare a periodic negative ramp sawtooth signal to a voltage signal on the capacitor. In an alternative method, a comparator is configured to compare the feedback signal to either the periodic ramp sawtooth reference signal or the constant DC reference signal depending on the switching operation of the switching regulator.

Abstract: The provided are a method and system for monitoring one or more physiological characteristic based on WBAN. The method includes: an node of a micro-network for monitoring the human body acquires physiological characteristic information of the human body; and a hub of the micro-network for monitoring the human body recognizes at least one identifier for identifying a physiological status of the human body according to the acquired physiological characteristic information of the human body, and selects, according to the at least one identifier for identifying the physiological status of the human body, whether to send the physiological characteristic information of the human body to a medical monitoring system terminal via a wireless network or not. According to the method, sign information of the monitored human body may be mastered in first time to provide a strong basis for subsequent treatment.

Abstract: A method and related apparatus and planner are provided. The method comprises receiving information about relationship of activation items in a plurality of virtual machines as well as information including activation item descriptive parameters. In addition, the method comprises of steps of optimizing an activation order of the activation items in said virtual machines according to said relationship among the activation items and generating an activation logical file according to the optimized activation order and said activation item descriptive parameters.

Abstract: A coated article includes a metal substrate, a carbosiliconized layer formed on the metal substrate, a metal bonding layer formed on the carbosiliconized layer, and a color layer formed on the metal bonding layer. The carbosiliconized layer is formed by carbosiliconizing the metal substrate to enable elemental carbon and elemental silicon to penetrate into a surface layer of the metal substrate. The color layer consists of ceramic material. A method for making the coated article is also described.

Abstract: A binding agent includes 3-glycidyloxypropyltrimethoxysilane, ethanol, isopropyl alcohol, alkylphenol ethoxylate, acetic acid and sodium dodecylbenzenesulfonate. The surface treatment method using the binding agent and articles manufactured by the method is also provided.