Abstract: The present invention relates to a method for preparing a modified stem cell, including the following steps: a cell culture step: culturing stem cells in a first culture medium of a culture dish at a predetermined cell density, and removing the first culture medium after a first culture time to obtain a first cell intermediate; an activity stimulation step: preserving the first cell intermediate in a freezing container having a cell cryopreservation solution, and performing a constant temperature stimulation treatment or a variable temperature stimulation treatment for at least more than 1 day; and a product collection step: after completing the activity stimulation step, placing the freezing container in an environment at a thawing temperature for thawing, and then removing the cell cryopreservation solution to obtain the modified stem cell. The modified stem cell can release at least one or more of IL-4, IL-5, IL-13, G-CSF, Fractalkine, and EGF.

Abstract: Disclosed in the present invention is an optimized cell transplant. The optimized cell transplant is formed by performing gene induction and modification on a mesenchymal stem cell in the form of a small molecule and protein composition. The expression levels of CD200 gene, Galectin-9 gene and VISTA gene can be increased synchronously after cell culture. Vector virus infection and plasmid transfection are not required in the cell preparation process, so that high biological safety and great clinical application value of cells are achieved.

Abstract: The present invention provides a mobile phone accessing system. The mobile phone accessing system comprises: a mobile phone having a first International Mobile Equipment Identity (IMEI) code; and a storage device comprising a first storage region for storing data, a second storage region for storing a second IMEI code, and a controller coupled to the first storage region and the second storage region for executing a security check function to determine whether the mobile phone is qualified to access the first storage region according to the first IMEI code.

Abstract: Included are systems and methods for reducing power consumption in a computer system. At least one embodiment of a method, among others, includes processing data in a normal mode, receiving an indication of a transition into an idle mode, capturing at least one frame of display data, and transmitting the captured frame of display data for display during idle mode.

Abstract: A data transmission coordinating method is used between a central processing unit and a bridge chip of a computer system. By entering the computer system into a coordinating state, the data transmission coordinating method is executed. The bridge chip and the CPU are informed of maximum bit numbers of each other for data transmission therebetween via the front side bus. Then, a commonly operable maximum bit number for data transmission between the CPU and the bridge chip can be coordinated according to the first and second maximum bit numbers. Once the commonly operable maximum bit number is determined, the CPU is reset to operate with the commonly operable maximum bit number. The maximum bit numbers are those of bus transmission width or bus transmission speed.

Abstract: In a data transmission coordinating method, the computer system enters a coordinating state, and a first signal is issued from the central processing unit to the data transmission standard storage unit of the bridge chip. In response to the first signal, a second signal is issued from the data transmission standard storage unit of the bridge chip to the central processing unit to inform the central processing unit of a first operable transmission standard of the bridge chip. After the computer system exits the coordinating state, data transmission between the central processing unit and the bridge chip is performed according to the first operable transmission standard in a first condition.

Abstract: A power state management method of north bridge. The north bridge monitors power transition state of processor; then adjusting operating clocks and operating voltage of the processor and the main memory according to the determined power state to saving power consumption.

Abstract: The present invention provides a mobile phone accessing system. The mobile phone accessing system comprises: a mobile phone having a first International Mobile Equipment Identity (IMEI) code; and a storage device comprising a first storage region for storing data, a second storage region for storing a second IMEI code, and a controller coupled to the first storage region and the second storage region for executing a security check function to determine whether the mobile phone is qualified to access the first storage region according to the first IMEI code.

Abstract: A data accessing system includes a host computer and a storage device. The host computer has a first media access control (MAC) address, and the storage device includes a first storage region, a second storage region, and a controller. The first storage region is utilized for storing data. The second storage region stores a second media access control address. The controller couples to the first storage region and the second storage region for executing a security checking function to determine if the host computer is qualified to access the first storage region according to the first media access control address.

Abstract: The present invention provides a mobile phone accessing system. The mobile phone accessing system comprises: a mobile phone having a first Subscriber Identity Module (SIM) specification corresponding to a SIM card; and a storage device comprising a first storage region for storing data, a second storage region for storing a second SIM specification, and a controller coupled to the first storage region and the second storage region for executing a security check function to determine whether the mobile phone is qualified to access the first storage region according to the first SIM specification.

Abstract: A core logic coupled to a main memory of a computer, comprising an analyzer and a power management unit. The analyzer monitors access request traffic load of main memory. The power management unit employs various power performance trade-off activities with the knowledge of the monitored traffic load according to the state machine.

Abstract: A data access system includes a host and a storage device. The host has a security setup function and includes a first identity code storage block to store a first identity code. The storage device has a security check function and includes a second identity code storage block. The host executes the security setup function to set a second identity code according to the first identity code, and the second identity code is stored into the second identity code storage block. The storage device executes the security check function to determine if the host is allowed to access the storage device according to the first and second identity codes.

Abstract: A data accessing system includes a host and a storage device. The host has a security setup function and includes a first identity code storage block. The host executes the security setup function to set a first identity code according to a second identity code, and the second identity code is stored into the first identity code storage block. The storage device has a security check function and includes a second identity code storage block to store the second identity code, and the storage device executes the security check function to determine if the host is allowed to access the storage device according to the first identity code.

Abstract: A frequency working between the north bridge chip and random access memory of a computer system is dynamically and automatically adjusted in response to the frequency change of the CPU, in response to the workload of the north bridge chip or in response to the change of settings in a software program. The computer system may need to perform POST (Power-On Self Test) of BIOS to detect and calibrate the adjusted frequency.

Abstract: A method for a power management of a central processor unit is disclosed. The method is applied to when the central processor unit is in a low power state without snooping and a bus master signal is sent from a peripheral device. First, a South Bridge sends a control signal to a central processor unit to drive the central processor unit to enter a low power state allowing snooping. Afterward an arbiter of the North Bridge is enabled. If the bus master signal is sent from the peripheral device to the South Bridge, an arbiter of the South Bridge is also enabled. And then the bus master signal is snooped by the central processor unit and the data is transmitted. After the bus master signal is snooped and the data has been transmitted, the arbiters are disabled and the South Bridge drives the central processor unit to return to the low power state without snooping.

Abstract: Included are systems and methods for reducing power consumption in a computer system. At least one embodiment of a method, among others, includes processing data in a normal mode, receiving an indication of a transition into an idle mode, capturing at least one frame of display data, and transmitting the captured frame of display data for display during idle mode.

Abstract: A data transmission coordinating method is used between a central processing unit and a bridge chip of a computer system. By entering the computer system into a coordinating state, the data transmission coordinating method is executed. The bridge chip and the CPU are informed of maximum bit numbers of each other for data transmission therebetween via the front side bus. Then, a commonly operable maximum bit number for data transmission between the CPU and the bridge chip can be coordinated according to the first and second maximum bit numbers. Once the commonly operable maximum bit number is determined, the CPU is reset to operate with the commonly operable maximum bit number. The maximum bit numbers are those of bus transmission width or bus transmission speed.

Abstract: In a data transmission coordinating method, the computer system enters a coordinating state, and a first signal is issued from the central processing unit to the data transmission standard storage unit of the bridge chip. In response to the first signal, a second signal is issued from the data transmission standard storage unit of the bridge chip to the central processing unit to inform the central processing unit of a first operable transmission standard of the bridge chip. After the computer system exits the coordinating state, data transmission between the central processing unit and the bridge chip is performed according to the first operable transmission standard in a first condition.

Abstract: A connected indicator wire of open-drained configuration is set between a north bridge and a south bridge. When either the south or north bridge is handling a bus master request, a bus master indicator (BMI) signal is asserted to the connected indicator wire. With open-drained configuration, the signal of the connected indicator wire is capable of reflecting whether a BMI signal is asserted, and accordingly, the south bridge controls the CPU to switch between power saving states for responding to the bus master request. The CPU does not have to resume a full-function power state to coordinate a bus master service.

Abstract: A method for a power management of a central processor unit is disclosed. The method is applied to when the central processor unit is in a low power state without snooping and a bus master signal is sent from a peripheral device. First, a South Bridge sends a control signal to a central processor unit to drive the central processor unit to enter a low power state allowing snooping. Afterward an arbiter of the North Bridge is enabled. If the bus master signal is sent from the peripheral device to the South Bridge, an arbiter of the South Bridge is also enabled. And then the bus master signal is snooped by the central processor unit and the data is transmitted. After the bus master signal is snooped and the data has been transmitted, the arbiters are disabled and the South Bridge drives the central processor unit to return to the low power state without snooping.