Abstract: The present disclosure relates to a device that includes a layer that includes a perovskite, where the layer has a first side and a second side defining a thickness, the perovskite has a bulk composition as defined by AB(X1-yXy?)3, where A includes a first cation, B includes a second cation, X includes iodide, and X? includes bromide, y is between 0.2 and 0.8, inclusively, and the thickness has a bromide concentration gradient across the thickness with a maximum concentration at or in the proximity of the first side and a minimum concentration at the second side.

Abstract: A display panel includes a display region and a photoelectric sensing region which includes a light transmitting region and a frame region surrounding the light transmitting region; the frame region includes a first region surrounding the light transmitting region, a second region on a side of the first region away from the light transmitting region and surrounding the first region, and a third region between the second region and the display region. The spacers are in an array and in the display region but not in the light transmitting region. A plurality of first support pillars are in the first region, arranged around the light transmitting region, and spaced from each other. A plurality of second support pillars are in the second region, around the second region, and spaced from each other. A plurality of third support pillars are in the third region in an array.

Abstract: The present disclosure relates to a composition that includes a perovskite having a stoichiometry comprising A1-xFAxSn1-yBy(I1-zXz)3, where A is a first cation, B is a second cation, X is a halide, and 0.5?x?0.9, 0.5?y?0.9, and 0?z?1. In some embodiments of the present disclosure, A may include at least one of cesium, guanidinium, and/or methylammonium. In some embodiments of the present disclosure, X may include at least one of bromide and/or chloride. In some embodiments of the present disclosure, z may be equal to zero.

Abstract: The present disclosure relates to a composition that includes a perovskite phase having the stoichiometry ABX3 and a perovskite-like phase having the stoichiometry A?2A?B?2X?, where A is a first cation, B is a second cation, X is a first anion, A? is a third cation, A? is a fourth cation, B? is a fifth cation, X? is a second anion, and A? is different than A?.

Abstract: The present disclosure provides a quantum dot light-emitting diode (QLED) and a preparation method thereof. The QLED includes an anode and a cathode that are oppositely arranged, a quantum dot luminescent layer arranged between the anode and the cathode, and an electron transport layer (ETL) arranged between the quantum dot luminescent layer and the cathode. The ETL includes a first ETL, and the first ETL is a zinc oxide film with a surface hydroxyl content of less than or equal to 0.4. Alternatively, the ETL includes zinc oxide, and at least a part of a surface of the zinc oxide includes an amino ligand and/or a carboxyl ligand with 3 to 7 carbon atoms. In the present application, the QLED improves a service life of a QLED-based device effectively.

Abstract: The present application discloses a QLED and a preparation method thereof. The QLED comprises an anode and a cathode being oppositely arranged, a quantum dot luminescent layer arranged between the anode and cathode, and an ETL arranged between the quantum dot luminescent layer and the cathode. Where the ETL includes a first ETL, and the first ETL is a zinc oxide film with a surface hydroxyl content being greater than or equal to 0.6. Or alternatively, the ETL contains zinc oxide, and the surface of at least some of the zinc oxide contains amino ligands and/or carboxyl ligands with 8-18 carbon atoms. The QLED provided in the present application improves an external quantum efficiency of the QLED device effectively.

Abstract: A fluid immersion cooling system has a fluid tank containing a hydrocarbon dielectric fluid as a coolant fluid. One or more components of an electronic system is immersed in the coolant fluid. A gas cylinder contains a non-flammable, compressed filling gas. The temperature of the coolant fluid is monitored during operation of the electronic system. The filling gas is released from the gas cylinder and into the fluid tank when the temperature of the coolant fluid rises to a trigger temperature that is set based on the flash point of the coolant fluid. The filling gas covers a surface of the coolant fluid to block oxygen from interacting with vapors of the coolant fluid to prevent combustion.

Abstract: The present application discloses a method for regulating an electron mobility of a zinc oxide, and the method includes following step: preparing the zinc oxide, wherein the electron mobility of the zinc oxide is regulated by controlling a surface hydroxyl content of the zinc oxide during the preparation of the zinc oxide. In the method for regulating the electron mobility of the zinc oxide provided by the embodiment of the present application, carrier injection balance or improving electron mobility of quantum dot light-emitting diode devices can be achieved only by adjusting the surface hydroxyl content of the zinc oxide, without changing the device structure (inserting the electron barrier layer) or modifying the zinc oxide film by doping and other methods. The whole process is simple and low-cost, and has a good repeatability.

Abstract: A method for quickly carrying out effective automatic interlocking logic detection based on a GOOSE communication mechanism, comprising: introducing an automatic system device model and configuration satisfying the IEC61850 standard, and simulating a GOOSE communication behavior in which an intelligent electronic device acts as a quick packet transmitter and receiver, so as to realize the closed-loop detection function by independent publishing and feedback monitoring GOOSE information.

Abstract: A transmitting system, the device and the method for the remote bus applies to control the remote device via network. The transmitting system comprises of a main computer and a bridge device. The main computer includes a first process unit, a storage unit, a first network port and an agent program. The first process unit dispatches the agent program, and sets up the address space and the connection channels according to the identify information. The bridge device couples to the main computer and the target device. The agent program divides the operation command and generates the first package. The main computer sends the first package to the bridge device via the first network port. The bridge device recovers the first package to the operation command, and drives the target device according to the operation command.

Abstract: A method for quickly carrying out effective automatic interlocking logic detection based on a GOOSE communication mechanism, comprising: introducing an automatic system device model and configuration satisfying the IEC61850 standard, and simulating a GOOSE communication behavior in which an intelligent electronic device acts as a quick packet transmitter and receiver, so as to realize the closed-loop detection function by independent publishing and feedback monitoring GOOSE information.

Abstract: A network control device, the network control system and the method of the remote device, the control method comprises of the next steps. A bridge device judges the destination of the packages. If the destination of the package from the second network port is the third network port, the bridge drops the packages. If the destination of the package from the first network port is the third network port, the bridge device merge the operate command according to the packages.

Abstract: A transmitting system, the device and the method for the remote bus applies to control the remote device via network. The transmitting system comprises of a main computer and a bridge device. The main computer includes a first process unit, a storage unit, a first network port and an agent program. The first process unit dispatches the agent program, and sets up the address space and the connection channels according to the identify information. The bridge device couples to the main computer and the target device. The agent program divides the operation command and generates the first package. The main computer sends the first package to the bridge device via the first network port. The bridge device recovers the first package to the operation command, and drives the target device according to the operation command.

Abstract: This invention relates to the enhancement of feed efficiency and growth rate, and the reduction of fat accumulation to produce better quality meat by administration of an exogenous gene sequence comprising the complementary DNA sequence of growth hormone releasing factor to stimulate the production of the endogenous hormone peptide growth hormone. This invention further relates to methods for producing such gene sequence.

Abstract: This invention relates to the enhancement of feed efficiency and growth rate, and the reduction of fit accumulation to produce better quality meat by administration of an exogenous gene sequence comprising the complementary DNA sequence of growth hormone releasing factor to stimulate the production of the endogenous hormone peptide growth hormone. This invention further relates to methods for producing such gene sequence.

Abstract: A computer system having a computer model of a Finite State Machine (FSM). The computer system includes a processor coupled to receive and manipulate the computer model, and a memory. The memory includes a computer model. The computer model includes, a first set of inputs, a first set of delayed inputs, a first set of outputs and a first set of delayed outputs. The computer model has a first output of the first set of outputs corresponding to a first input of the first set of inputs, a first delayed input of the first set of inputs and a first delayed output of the first set of delayed outputs.