5 results about "Energy minimum" patented technology

A compound is described as having a triplet excited state and a singlet excited state; wherein the triplet excited state comprises a lowest energy triplet sublevel, a middle energy triplet sublevel, and a highest energy triplet sublevel; and wherein an energy separation between the highest energy triplet sublevel and the lowest energy triplet sublevel (ZFS) is greater than an energy separation between the singlet excited state and a the lowest energy triplet sublevel. Also described is a compound represented by the following Formula I. These compounds should find application as luminescent materials in organic light emitting diodes (OLEDs).

A method (100) for determining a ground state (1000) of a quantum system is disclosed, comprising the following steps: 6) determining (102) the thermal state (1020) of the quantum system at a temperature value (1001', 1001) by optimizing the free energy (3020) of the thermal state (1020) at the temperature value (1001', 1001) by iteratively adjusting gate parameters (1022', 1022) by means of a variational quantum thermalizer (1010) until a first termination criterion is met; 7) checking (1025) whether the previously found thermal state meets a second termination criterion; 8) if the second termination criterion is not met (10250): decreasing (1026) the temperature value (1001', 1001); initializing (301) the quantum circuit (1011) of the variational quantum thermalizer using the gate parameters (1022', 1022) from the last iteration of step 2); repeating steps 2) and 3); 9) if the second termination criterion is met (10251): providing (103) an energy spectrum (1030) of the quantum system using the gate parameters (1022) of the last iteration of step 2) before the second termination criterion (10251) is met; determining (104) the ground state (1000) of the quantum system by selecting the state of the energy spectrum that is assigned the lowest energy.

The application discloses a kind of unmanned aerial vehicle cluster energy minimum distributed multi-target hunting interception method, in this method, the specific operation process of obtaining interception energy consumption is proposed, by the analysis and meaningful energy consumption obtained, dynamic MPT distribution can be designed by minimizing the total control cost of pursuer group. Compared with the series distribution and guidance method, the method well unifies the optimization index of two stages to avoid unnecessary energy consumption and improve the synergistic effect. In addition, a distributed allocation algorithm with allowable task set constraint is also proposed. Since the detection capability of each interceptor is usually limited in engineering applications, and only part of the target information is available for each interceptor, the method can well solve the practical problems in engineering to achieve target hunting interception at a lower cost.

Various methods, systems, and / or processes are described herein that can operate on a minimally energized power level to detect motion and paths of motion within an environment. A device suitable for carrying out these operations may include an energization optimization logic which can be responsible for selecting a floorplan, identifying access points associated with the floorplan, determining identities, such as persons, located within the floorplan, and tracking their motion. Once this information is gathered, the logic determines a reduced power configuration and passes it to various access points in the floorplan area to reduce the energy consumption based on the configuration. This allows for energy optimization while still maintaining the tracked motion of the identities within the floorplan. The logic allows for efficient power usage in areas with high traffic flow, while still maintaining the quality of service for the identities within the space, which can change dynamically over time.

This invention discloses a simulation method for the change in grain roundness during the growth of ternary cathode materials, belonging to the technical field of ternary cathode materials. The simulation method includes: S1, acquiring SEM images at different initial moments of isothermal temperatures and using them as the initial state of a cellular automaton; S2, calculating the grain growth rate and determining the grain growth distance at each moment, and determining the cell orientation transition moment by comparing it with the cell edge length; S3, calculating the grain boundary energy difference before and after the cell orientation transition to determine the cell orientation transition; S4, further transformation for convex and concave cells; S5, designing cell state transition rules based on grain growth rate, local grain boundary curvature, and the minimum energy principle to establish a two-dimensional cellular automaton model to simulate the change in grain roundness during grain growth. The simulation method proposed in this invention successfully and comprehensively simulates the roundness change during grain growth.