Abstract: A charging system, configured to charge an electric vehicle, includes a plurality of movable energy storage devices and an operation center. Each movable energy storage device includes a carrier, a dynamic balancer disposed on the carrier, and an energy storage set including two flywheel energy storage modules disposed on the dynamic balancer and dynamically balanced relative to the carrier through the dynamic balancer. The operation center includes a charging station and a controller which is in communication connection with the movable energy storage devices. The controller is configured for instructing at least one movable energy storage device to move to the charging station for the charging station to charge the at least one energy storage set, or the controller is configured for instructing at least one movable energy storage device to move to the electric vehicle for the at least one energy storage set to charge the electric vehicle.

Abstract: The present invention provides a Lactobacillus composition and a use thereof for improving anxiety caused by antibiotics, wherein the Lactobacillus composition comprises Lactobacillus plantarum GMNL-141, Lactobacillus rhamnosus GM-020, Lactobacillus acidophilus GMNL-185, or a combination thereof. The Lactobacillus composition can effectively improve imbalance of an individual's intestinal flora caused by antibiotics to help stabilize and increase species richness and increase the synthesis of mood-stabilizing compounds, including flavonoids, flavonols, isoquinoline alkaloids, niacinamide, nicotinamide, and short-chain fatty acids in intestine, and thus effectively improve antibiotic-induced with anxiety disorders.

Abstract: A probiotic composition of improving memory and learning ability is disclosed. The probiotic composition comprises Lactobacillus acidophilus GMNL-185 and Lactobacillus rhamnosus GMNL-680, wherein the Lactobacillus acidophilus GMNL-185 was deposited in the China Center for Type Culture Collection in Wuhan, China on Nov. 3, 2017 under an accession number CCTCC NO. M 2017764, and the Lactobacillus rhamnosus GMNL-680 was deposited in the China Center for Type Culture Collection in Wuhan, China on Nov. 3, 2017 under an accession number CCTCC NO. M 2017766, wherein a ratio of a number of bacteria of the Lactobacillus acidophilus GMNL-185 to a number of bacteria of the Lactobacillus rhamnosus GMNL-680 is 1:1.

Abstract: A hot plugging type power module including a circuit board, a main battery, an assistant battery, a main control unit, and a detection unit is provided. The main battery is demountably disposed at the circuit board and coupled to the main control unit. The assistant battery is disposed at the circuit board. The main control unit is disposed at the circuit board and selectively and electrically connected to the main battery and the assistant battery. The main control unit detects a capacity of the main battery and the assistant battery. The detection unit is disposed at the circuit board and coupled to the main control unit and the main battery and is adapted for detecting a relative position between the main battery and the circuit board.

Abstract: The present invention provides a Lactobacillus composition and a use thereof for improving anxiety caused by antibiotics, wherein the Lactobacillus composition comprises Lactobacillus plantarum GMNL-141, Lactobacillus rhamnosus GM-020, Lactobacillus acidophilus GMNL-185, or a combination thereof. The Lactobacillus composition can effectively improve imbalance of an individual's intestinal flora caused by antibiotics to help stabilize and increase species richness and increase the synthesis of mood-stabilizing compounds, including flavonoids, flavonols, isoquinoline alkaloids, niacinamide, nicotinamide, and short-chain fatty acids in intestine, and thus effectively improve antibiotic-induced with anxiety disorders.

Abstract: A kinetic energy recovery system with flywheel includes a cascade flywheel doubly-fed electric machine and an electric motor. The cascade flywheel doubly-fed electric machine has a stator end coil, a rotor end coil and a flywheel. The flywheel can store kinetic energy by increasing speed or releasing kinetic energy by decreasing speed. A control circuit has an inverter, a rectifier and a DC bus connecting the inverter and the rectifier. The inverter supplies alternating current to the rotor end coil. The rectifier has an AC end connected to the stator end coil through an AC bus. The rectifier converts alternating current to direct current, so that the inverter can draw power from the DC bus. The electric motor has a phase coil connected to the AC bus. When the cascade flywheel double-fed electric machine decelerates, the system converts mechanical energy into electrical energy.

Abstract: A hot plugging type power module including a circuit board, a main battery, an assistant battery, a main control unit, and a detection unit is provided. The main battery is demountably disposed at the circuit board and coupled to the main control unit. The assistant battery is disposed at the circuit board. The main control unit is disposed at the circuit board and selectively and electrically connected to the main battery and the assistant battery. The main control unit detects a capacity of the main battery and the assistant battery. The detection unit is disposed at the circuit board and coupled to the main control unit and the main battery and is adapted for detecting a relative position between the main battery and the circuit board.

Abstract: An electric power-regulating system includes an electric-load end, a power-supply end, a power regulator, a DC-bus device, a flywheel energy-storage device, a switch device and a controller. The flywheel energy-storage device connects the DC-bus device. The switch device is connected between the flywheel energy-storage device and the DC-bus device. The switch device provides at least one current-flow direction between the DC-bus device and the flywheel energy-storage device. The controller controls the power regulator and the flywheel energy-storage device. When a voltage of the DC-bus device exceeds a operation range, the controller selectively limits the current-flow direction of the switch device. Further, when a voltage-bias direction of the switch device and the current-flow direction are the same, the controller allows a current of the DC-bus device to flow into or out of the flywheel energy-storage device in the current-flow direction. In addition, an electric power-regulating method is also provided.

Abstract: A kinetic energy recovery system with flywheel includes a flywheel doubly-fed electric machine, an electric motor, a drive circuit and a controller. The flywheel doubly-fed electric machine has a primary side coil and a secondary side coil. The electric motor has a phase coil connected in series with the primary side coil. The drive circuit has an AC/DC circuit and a DC/AC circuit, wherein the AC end of the AC/DC circuit is coupled to the primary side coil; the AC end of the DC/AC circuit is coupled to the secondary side coil. The controller is configured to manipulate a frequency and a phase of output voltage and output current of the secondary side coil, thereby controlling the frequency and phase of a voltage and a current output from the primary side coil, thereby recovering a kinetic energy of the electric motor or providing the kinetic energy to the electric motor.

Abstract: A kinetic energy recovery system with flywheel includes a flywheel doubly-fed electric machine, an electric motor, a drive circuit and a controller. The flywheel doubly-fed electric machine has a primary side coil and a secondary side coil. The electric motor has a phase coil connected in series with the primary side coil. The drive circuit has an AC/DC circuit and a DC/AC circuit, wherein the AC end of the AC/DC circuit is coupled to the primary side coil; the AC end of the DC/AC circuit is coupled to the secondary side coil. The controller is configured to manipulate a frequency and a phase of output voltage and output current of the secondary side coil, thereby controlling the frequency and phase of a voltage and a current output from the primary side coil, thereby recovering a kinetic energy of the electric motor or providing the kinetic energy to the electric motor.

Abstract: A kinetic energy recovery system with flywheel includes a cascade flywheel doubly-fed electric machine. The cascade flywheel doubly-fed electric machine has a stator end coil, a rotor end coil and a flywheel. The flywheel can store kinetic energy by increasing speed or releasing kinetic energy by decreasing speed. A control circuit has an inverter, a rectifier and a DC bus connecting the inverter and the rectifier. The inverter is used to supply alternating current to the rotor end coil. The rectifier has an AC end connected to the stator end coil through an AC bus. The rectifier converts alternating current to direct current, so that the inverter can draw power from the DC bus. An electric motor has a phase coil connected to the AC bus. When the cascaded flywheel double-fed electric machine decelerates, the kinetic energy recovery system with flywheel will convert mechanical energy into electrical energy.

Abstract: The disclosure relates to a flywheel energy storage system including a casing, shaft, flywheel, and electric motor assembly. The casing has an inner vacuum chamber, at least one outer accommodating slot and at least one separator which separates the inner vacuum chamber from the at least one outer accommodating slot. The shaft is rotatably disposed in the inner vacuum chamber. The flywheel is located in the inner vacuum chamber and fixed to the shaft. The electric motor assembly includes a first motor rotor and a motor stator. The motor stator is accommodated in the at least one outer accommodating slot and fixed to the at least one separator. The first motor rotor is fixed on the shaft and located between the shaft and the motor stator. Part of the at least one separator located between the first motor rotor and the motor stator includes magnetically permeable material.

Abstract: The disclosure relates to a flywheel energy storage system including a casing, shaft, flywheel, and electric motor assembly. The casing has an inner vacuum chamber, at least one outer accommodating slot and at least one separator which separates the inner vacuum chamber from the at least one outer accommodating slot. The shaft is rotatably disposed in the inner vacuum chamber. The flywheel is located in the inner vacuum chamber and fixed to the shaft. The electric motor assembly includes a first motor rotor and a motor stator. The motor stator is accommodated in the at least one outer accommodating slot and fixed to the at least one separator. The first motor rotor is fixed on the shaft and located between the shaft and the motor stator. Part of the at least one separator located between the first motor rotor and the motor stator includes magnetically permeable material.

Abstract: An electric power-regulating system includes an electric-load end, a power-supply end, a power regulator, a DC-bus device, a flywheel energy-storage device, a switch device and a controller. The flywheel energy-storage device connects the DC-bus device. The switch device is connected between the flywheel energy-storage device and the DC-bus device. The switch device provides at least one current-flow direction between the DC-bus device and the flywheel energy-storage device. The controller controls the power regulator and the flywheel energy-storage device. When a voltage of the DC-bus device exceeds a operation range, the controller selectively limits the current-flow direction of the switch device. Further, when a voltage-bias direction of the switch device and the current-flow direction are the same, the controller allows a current of the DC-bus device to flow into or out of the flywheel energy-storage device in the current-flow direction. In addition, an electric power-regulating method is also provided.

Abstract: The disclosure is related to a flywheel energy storage system comprising a casing, a shaft, a flywheel, and at least one electric motor assembly. The shaft is rotatably disposed in the casing. The flywheel comprises a hub and an annular part, the shaft is disposed through the annular part, the annular part is fixed to the shaft via the hub, and the annular part has at least one cavity. The electric motor assembly is accommodated in the cavity and comprises a first motor rotor and a motor stator. In the cavity, the first motor rotor is fixed on the shaft, and the motor stator is fixed to the casing and located between the first motor rotor and the annular part.

Abstract: The present invention provides a primer set and a kit containing same for analyzing a sequence of an MLH1 DNA, an MLH1 mRNA, and/or a cDNA sequence derived from said MLH1 mRNA of a subject to identify a V384 alteration of an MLH1 gene encoded protein.

Abstract: The present invention provides a primer set and a kit containing same for analyzing a sequence of an MLH1 DNA, an MLH1 mRNA, and/or a cDNA sequence derived from said MLH1 mRNA of a subject to identify a V384 alteration of an MLH1 gene encoded protein.

Abstract: A gamma correction method adapted for a liquid crystal display panel is provided. The gamma correction method includes the following steps. A reference gamma curve is provided. The LCD panel is lighted up with at least one of primary-color frames. Gamma voltages of the primary-color frame are set for the LCD panel based on the reference gamma curve to obtain at least one primary-color gamma curve. The gamma correction is performed on the LCD panel based on the at least one primary-color gamma curve or a linear combination curve of the at least one primary-color gamma curve. By using the gamma correction method, the LCD panel could be allowed to provide good image quality.

Abstract: A system for classifying tiny insects includes a cultivation tank, a detecting container, a detector, a gathering device, and a control unit. The cultivation tank is connected to the detecting container, so that the hatched tiny insects can enter the detecting area of the detecting container from the cultivation tank. The detector is used for detecting the characteristics of the tiny insects in the detecting area, and then the control unit controls the switching unit of the gathering device to switch the gathering containers for gathering the tiny insects according to the detecting results. The system of the present invention is capable of automatically classifying the tiny insects and then gathering them to different gathering containers according to their characteristics, so as to decrease the man power and time necessary for factitious classification.

Abstract: A projection apparatus including an image panel, a projection lens, and a control unit is provided. The image panel is configured to provide an image beam and has a displaying area. The projection lens is configured to project the image beam to form an image. When the optical axis of the projection lens is tilted with respect to a normal of the image, the control unit commands a first portion of the displaying area to show a compressed frame corresponding to the image and commands a second portion of the displaying area to show a black border. A projection method is also provided.