Abstract: An electromagnetic field generating apparatus for treating pathological cells, in particular with tumor suppression function. The ratio of static magnetic field to alternating magnetic field is in the range of 0.5-2.5, and the total intensity is in the range up to 100 mT. It provides non-invasive low toxicity and side effects, significantly inhibiting a plurality of tumors, influencing the intracellular superoxide radical content, and promoting cell autophagy. The mechanism of action of the magnetic field is on the electron spin energy levels and consequently on free radical concentration. Additional magnetic field having frequency up to 100 MHz and intensity down to microTesla range can be also used to improve the antitumor efficacy in combination with the static as well as the extremely low frequency electromagnetic field (1-300 Hz) influencing the spin hyperfine resonance. A combination method is also provided of a power-frequency electromagnetic field generating device and a platinum-based medicine.

Abstract: Provided is a battery energy storage grid-load interactive method, terminal, system and medium for superimposed control. The method includes: receiving, by the battery energy storage grid-load interactive terminal, a load shedding instruction sent by a master station; sending, by the battery energy storage grid-load interactive terminal, the load shedding instruction to the power conversion system to enable the power conversion system to switch the operating state of the power conversion system from a charging state or a standby state or a discharging state to a maximum power discharging state according to the load shedding instruction; and sending, by the battery energy storage grid-load interactive terminal, the load shedding instruction to the energy managing system to enable the energy managing system to control the power conversion system.

Abstract: Provided is a battery energy storage grid-load interactive method, terminal, system and medium for superimposed control. The method includes: receiving, by the battery energy storage grid-load interactive terminal, a load shedding instruction sent by a master station; sending, by the battery energy storage grid-load interactive terminal, the load shedding instruction to the power conversion system to enable the power conversion system to switch the operating state of the power conversion system from a charging state or a standby state or a discharging state to a maximum power discharging state according to the load shedding instruction; and sending, by the battery energy storage grid-load interactive terminal, the load shedding instruction to the energy managing system to enable the energy managing system to control the power conversion system.

Abstract: Embodiments of the invention provide techniques for migrating data which allows transforming a data source of an existing system into a migrated data source complying with data requirements of a new system, typically in response to an upgrade of an application configured to access the data source. The system and method for data migration services is reusable (i.e., it may be used for different levels of data migration, e.g., in system upgrades to different versions), idempotent (i.e., it may be used multiple times on the same level of data migration, e.g., it may be applied multiple time in the same system upgrade of the same data without causing any disruption or different result when applied multiple times), and metadata driven (i.e., it does not require significant changes to be used for data migration of different systems).

Abstract: Embodiments of the invention provide techniques for migrating data which allows transforming a data source of an existing system into a migrated data source complying with data requirements of a new system, typically in response to an upgrade of an application configured to access the data source. The system and method for data migration services is reusable (i.e., it may be used for different levels of data migration, e.g., in system upgrades to different versions), idempotent (i.e., it may be used multiple times on the same level of data migration, e.g., it may be applied multiple time in the same system upgrade of the same data without causing any disruption or different result when applied multiple times), and metadata driven (i.e., it does not require significant changes to be used for data migration of different systems).