Abstract: A non-invasive fetal sex abnormality detecting system includes a sequencing platform and a non-transitory machine readable medium. The sequencing platform is for cleaving a DNA of a tested sample into a plurality of divided fragments, and the non-transitory machine readable medium is for storing a program used to detect the sexuality. The non-transitory machine readable medium includes an analyzing-processing module, a reference database and a comparing module. The analyzing-processing module is for cleaving a known Y chromosome sequence of a human body into a plurality of comparison fragments and comparing the divided fragments with the comparison fragments. The reference database is constructed by the analyzing-processing module, wherein the reference database includes a male area, a female area, and an abnormal area. The comparing module is for comparing the number with the reference database to determine the number falling within which area.

Abstract: A method for detecting a chromosomal aneuploidy relating to a target nucleic acid region includes the following steps. A reference database is obtained. At least one normalizing factor is determined based on the reference database. A cutoff value is determined based on the reference database. A biological sample under test is sequenced by the sequencing platform to obtain a number of target reads of the biological sample under test. The target reads of the biological sample under test originate from the target nucleic acid region. The number of the target reads of the biological sample under test is normalized by the normalizing factor and then is compared with the cutoff value.

Abstract: A charging device for charging a first battery cell and a second battery cell comprises a node, a control circuit, a charging circuit and a current-dividing unit. The control circuit is coupled to the charging circuit, the current-dividing unit, and the first and second battery cells. The control circuit controls the charging circuit to provide a first charge current or a second current for the node which couples to the first battery cell and the current-dividing unit and controls the state of the current-dividing unit. The current-dividing unit is set to share the current flowing into the node and acts as an open circuit in a first state and a resistor of finite resistance in a second state.

Abstract: A battery charging circuit and a charging method thereof are described hereinafter. The battery charging circuit includes a charging unit connected to an external main power for gaining power to charge a battery, a temperature sensor located beside the charging unit for sensing a temperature of the battery and then sending a corresponding temperature signal out, a main control circuit for receiving the temperature signal sent by the temperature sensor and then transmitting a corresponding power control signal out according to the temperature signal, and a power control circuit connected between the main power and the charging unit for receiving the power control signal transmitted by the main control circuit and then adjusting charging voltage and current for the charging unit according to the power control signal.

Abstract: A method for charging a rechargeable battery set includes steps of obtaining a temperature of the rechargeable battery set, controlling a charging unit to provide a lower charging energy to the rechargeable battery set if the temperature of the rechargeable battery set exceeding a temperature threshold, and controlling the charging unit to provide a normal charging energy to the rechargeable battery set if the temperature of the rechargeable battery set being below the temperature threshold. Therefore, the charging speed of the rechargeable battery set is decelerated and the rechargeable battery set is maintained in an un-full condition in the condition of high temperature and high remainder capacity for preventing the rechargeable battery set from deterioration to extend it's life.

Abstract: A method for managing a rechargeable battery set coupled to an electronic device comprises steps of obtaining a temperature of the rechargeable battery set; obtaining a remainder capacity of the rechargeable battery set; sending a first signal to indicate the electronic device to receive power from the rechargeable battery set if the temperature of the rechargeable battery set exceeding a threshold of temperature and the remainder capacity of the rechargeable battery set exceeding a threshold of capacity. The method prevents the rechargeable battery 4 from a condition of high temperature and high remainder capacity to prevent the rechargeable battery 4 from deterioration.

Abstract: A battery charging circuit includes a power input unit for supplying power to charging units and a control module. Each charging unit includes a connecting port for connecting one battery, an electromagnetic coil and a switch module connected between the connecting port and the electromagnetic coil. The connecting ports are series-connected with one another. The control module is used for monitoring the voltage of the batteries and then controlling a work state of the switch modules by means of comparing a voltage variance between any two of the batteries with a specific data set in the control module so as to make the battery with a greatest voltage discharged to produce a discharge current for secondarily charging the other batteries by means of the electromagnetic coils when the voltage variance is greater than the specific data.

Abstract: A multi-cell battery pack charge balance circuit is connected to a recharge-discharge circuit to charge battery cells. The charge balance circuit includes a first balance circuit, a second balance circuit and a protection circuit. The first balance circuit is connected to a first node of the recharge-discharge circuit. The first balance circuit includes a plurality of controlling units, each of the controlling units includes a switch element and a resistor element connected with the switch element. The second balance circuit is connected to a second node of the recharge-discharge circuit and the first balance circuit. The second balance circuit has a first and second branch. The first branch includes a switch element. The second branch includes a switch element and a resistor element connected with each other. The protection circuit has a plurality of controlling points. The controlling points connect with the corresponding switch elements of the first and second balance circuits.

Abstract: A control circuit includes a voltage-dividing resistor connected to a voltage input terminal, at least one thermal breaker series-connected between the voltage-dividing resistor and the ground and disposed near one corresponding battery, and an output terminal drawn forth from a connection location of the thermal breaker and the voltage-dividing resistor and adapted to be connected with a protective circuit. The thermal breaker breaks according to the temperature of the corresponding battery, and then the output terminal transmits different protective signals to the protective circuit according to the working state of the thermal breaker so as to make the protective circuit protect the battery based on the protective signals. Therefore, the control circuit of the present invention is relatively simpler and occupies a relatively smaller space so that can meet the demand of both miniaturization and low cost of electronic products.

Abstract: A battery module includes a base device, a plurality of battery groups and a plurality of protecting circuit groups. The base device has a positive plate and a negative plate spaced from the positive plate. The battery groups are parallel-connected between the positive plate and the negative plate, each of which has a plurality of unit cells connected in series. Each of the protecting circuit groups is connected with the battery group and has a plurality of connecting terminals. The positive pole and the negative pole of each of the unit cells of the battery group are connected with the corresponding connecting terminals of the protecting circuit group. Therefore, the failed battery group or unit cell can be timely detected by the protecting circuit group so as to ensure the reliability and product life of the battery module.

Abstract: A battery module adapted for supplying power to an electric equipment includes an energy battery device, a power battery device and a charging device. The energy battery device includes a plurality of parallel conductive plates and energy battery groups each connected between the neighboring two conductive plates and including a plurality of parallel-connected energy cells. The power battery device is adapted to be connected with the supplied electric equipment and includes a power battery group formed by a series-connection of a plurality of power cells. The charging device has two input terminals connecting the energy battery device therebetween and two output terminals connecting the power battery device therebetween so that the power battery group can be charged by the energy battery device, the two output terminals connected with the electric equipment for supplying power to the electric equipment by the energy cells.

Abstract: A charging control circuit connected with a charging power supply for charging a pile formed by a series-connection of battery units includes a protecting circuit having control ports and monitoring ports, a charging circuit including diffluent circuits respectively parallel-connected to the corresponding battery units, and a control circuit including two parallel branches connected between the charging power supply and the pile. The monitoring ports are connected to two terminals of the corresponding battery units. Each diffluent circuit has a controlled switch element and a diffluent resistance element series-connected with each other. The controlled switch element has a switch control terminal connected to the corresponding control port. One of the branches has a third resistance element. The other branch has a fourth resistance element and a third switch element series-connected with each other. The third switch element has a third control terminal connected to the charging circuit.

Abstract: A battery charging apparatus connects secondary batteries of the battery pack, plurality of charge terminals and two discharge terminals to form plurality charge paths and a discharge path, which has a main switch provided on the discharge path, a main controller connecting the battery pack and the main switch, plurality of sub switches provided on the charge paths, plurality of sub controllers connecting secondary batteries of the battery pack and corresponding sub switches, a thermal controller connecting the main controller and a temperature switch. The temperature switch connects the sub switches. The main controller and sub controllers monitor charge state and discharge state of the battery pack to set the main switch and sub switches cut off the discharge path and the charge paths. The thermal controller monitors temperature of the battery pack and main switch to set the main switch and the sub switches cut off the discharge path and the charge paths.

Abstract: A multi-cell battery pack charge balance circuit is connected to a recharge-discharge circuit to charge battery cells. The charge balance circuit includes a first balance circuit, a second balance circuit and a protection circuit. The first balance circuit is connected to a first node of the recharge-discharge circuit. The first balance circuit includes a plurality of controlling units, each of the controlling units includes a switch element and a resistor element connected with the switch element. The second balance circuit is connected to a second node of the recharge-discharge circuit and the first balance circuit. The second balance circuit has a first and second branch. The first branch includes a switch element. The second branch includes a switch element and a resistor element connected with each other. The protection circuit has a plurality of controlling points. The controlling points connect with the corresponding switch elements of the first and second balance circuits.

Abstract: A battery charging apparatus connects secondary batteries of the battery pack, plurality of charge terminals and two discharge terminals to form plurality charge paths and a discharge path, which has a main switch provided on the discharge path, a main controller connecting the battery pack and the main switch, plurality of sub switches provided on the charge paths, plurality of sub controllers connecting secondary batteries of the battery pack and corresponding sub switches, a thermal controller connecting the main controller and a temperature switch. The temperature switch connects the sub switches. The main controller and sub controllers monitor charge state and discharge state of the battery pack to set the main switch and sub switches cut off the discharge path and the charge paths. The thermal controller monitors temperature of the battery pack and main switch to set the main switch and the sub switches cut off the discharge path and the charge paths.