7results about How to "Tune performance" patented technology

This application relates to the field of nylon glass fiber preparation technology, and particularly to a method for preparing a nylon glass fiber composite flexible hinge. The method includes: acquiring composite data; adjusting the composite data and input data from the operator to obtain preparation data; and initiating the preparation process of the nylon glass fiber composite flexible hinge based on the preparation data and a start command from the operator. The nylon glass fiber composite flexible hinge preparation method provided by this application solves the problem that in traditional nylon glass fiber composite flexible hinge preparation processes, the use of general specifications and processes often makes precise customization according to specific needs difficult, resulting in the performance of the prepared nylon glass fiber composite flexible hinge not fully meeting the user's requirements.

The application belongs to the technical field of functional pigments, and particularly relates to a preparation method of high-light-resistance composite pigments. The preparation method of the application is that: after pretreatment and cleaning, hexagonal boron nitride is obtained to be modified boron nitride nanosheet, and then the modified boron nitride nanosheet is compounded with organic pigments to obtain ideal high-light-resistance composite pigments. The modified boron nitride nanosheet used in the application can be better combined with the organic pigments by using the principle of entropy increase, the rich electron boron-nitrogen plane of the hexagonal boron nitride and the aromatic conjugated system of the lithol red molecules produce pi-pi stacking interaction, and then the two are driven to self-assemble to form high-light-resistance composite pigments, and the high-light-resistance composite pigments form a structure that is compact. The high-light-resistance composite pigments obtained by the application still maintain the chemical structure and gloss of the original organic pigments, and have excellent stability and good light resistance, and the problem of poor light resistance of the organic pigments is solved.

The invention discloses an equipment control method and device, equipment and a storage medium, and the method comprises the steps: obtaining a plurality of target objects and the motion information of each target object from a plurality of frames of images detected by target equipment, predicting the number of frames of each target object in a detection region corresponding to the target equipment according to the motion information, obtaining complete process execution time consumed by the target device for processing a single frame of image, calculating predicted time consumed by the target device for processing each target object according to the existing frame number and the complete process execution time consumed, and calculating average time consumed by the target device for processing a single target object according to the predicted time consumed, a power consumption adjustment coefficient is calculated according to the average time consumption and the target time consumption, the target equipment is controlled according to the power consumption adjustment coefficient, and the target time consumption is the time consumption meeting the user requirement corresponding to the target equipment, so that the equipment power consumption can be adjusted on the premise of ensuring that the equipment performance can meet the user requirement. And the balance between equipment performance and equipment power consumption is realized.

The application relates to the technical field of martensitic steel, in particular to a martensitic steel ring-shaped forge piece, the ferrite in the structure of the ring-shaped forge piece is uniformly granularly distributed, the transverse tensile strength of the ring-shaped forge piece is 1214-1235 MPa, the elongation after fracture is 13.5%-14.0%, and the average impact energy is greater than or equal to 50 J; the ring-shaped forge piece is prepared through a heat treatment process of high-temperature tempering pretreatment, ultrahigh-temperature treatment, standard quenching treatment and twice tempering treatment. The martensitic steel ring-shaped forge piece provided by the application solves the problem of low transverse plasticity and impact performance of the martensitic stainless steel ring-shaped forge piece, and the ultrahigh-temperature treatment and tempering are adopted to realize the optimization and adjustment of the structure form and performance, so that the transverse plasticity and impact energy indexes of the material meet the standard requirements of GB / T 1220.

The present application discloses a dialysis device, a method for determining the coagulation status of a dialyzer, and a monitoring system. The dialyzer coagulation status monitoring system is applied to a dialyzer connected with a dialyzer circuit and a blood circuit, wherein the dialyzer circuit is provided with a dialyzer inlet pressure sensor and a dialyzer outlet pressure sensor, and the blood circuit is provided with a blood chamber inlet pressure sensor and a blood chamber outlet pressure sensor, and further includes a control system, which is used to determine the coagulation status of a dialyzer according to the formula (P BI +P BO ) / 2‑(P DI +P DO ) / 2 calculates the transmembrane pressure, P BI is the pressure at the blood chamber entrance, P BO is the pressure at the blood chamber outlet, P DI is the pressure at the dialysate inlet, P DO is the pressure at the dialysate outlet; the flux at different times is calculated based on the transmembrane pressure, and the flux is equal to the dehydration rate of the dialyzer divided by the transmembrane pressure; it is also used to calculate the flux attenuation rate based on the flux at different times, and the flux attenuation rate = (1-flux at a certain moment / flux at the initial moment) × 100%.

The present disclosure relates to an electrode assembly, a battery cell, a battery, an electrical equipment, a winding equipment, and a method, which belongs to the battery technology field. The electrode assembly includes a first electrode plate and a second electrode plate with opposite polarity, wherein the first electrode plate and the second electrode plate are stacked and wound along the winding direction to form the electrode assembly, wherein the first electrode plate includes a first segment and a second segment, wherein the first segment is provided with a first active substance layer, and the second segment is provided with a second active substance layer, and the first segment is located upstream of the second segment along the winding direction from inside to outside. The electrode assembly can be segmented to undergo differentiated treatments according to performance requirements to meet different performance requirements.

The application relates to a gallium oxide preparation method and system based on deep learning and a crucible lowering method, and a prediction method comprises the following steps: acquiring preparation data of a gallium oxide single crystal; the preparation data comprises seed crystal data, environment data and control data; the preparation data is preprocessed to obtain preprocessed preparation data; and the preprocessed preparation data is input into a trained neural network model to obtain corresponding predicted property data of the gallium oxide single crystal. The preparation data is preprocessed to obtain preprocessed preparation data, the preprocessed preparation data is input into the trained neural network model to obtain corresponding predicted property data of the gallium oxide single crystal, the performance of the gallium oxide single crystal is predicted through the trained neural network model, the preparation data is adjusted to obtain the required performance of the gallium oxide single crystal, and the performance of the gallium oxide single crystal is optimized.