15results about How to "Controllable" patented technology

The application patent relates to the technical field of integrated circuit technology, and particularly relates to a manufacturing method of a full-gate device with four ports. The manufacturing method comprises the following steps: S1, epitaxial growth: firstly, N-epitaxial layer and P+ epitaxial layer, intrinsic silicon layer are grown on N+ substrate in sequence through epitaxial growth technology; S2, etching: the N-epitaxial layer, P+ epitaxial layer and intrinsic silicon layer are etched to remove the excess part; S3, thermal oxidation: the etched part is grown with SiO2 layer through thermal oxidation process; S4, ion implantation: N- region is doped to form N-source region through ion implantation process on the intrinsic silicon layer, and N+ region is doped to form N+ source region on the N-source region; S5, re-etching: etching is performed on the region of SiO2 layer to obtain a ring-shaped groove, a rectangular groove and a cylindrical groove; S6, metal deposition: metal is deposited in the ring-shaped groove, the rectangular groove and the cylindrical groove. The method can enhance the anti-TID effect of the device, and different potentials can be applied to the source and the substrate according to the actual circuit condition.

This invention discloses a method for preparing an electrically pulsed perovskite oxygen evolution reaction (OER) catalyst. The method involves overlapping electrodes on both sides of an SRIO thin film prepared from strontium nitrate, ruthenium oxide, and iridium oxide. Under an argon atmosphere, the SRIO thin film is subjected to a 2-second electrical pulse treatment via an external voltage source, with an electric field strength of 40 V / cm. This invention utilizes ruthenium oxide and iridium oxide powders as ruthenium and iridium sources, making it easier to obtain high-purity SRIO@E catalysts. This provides significant guidance for the synthesis of noble metal-based perovskite materials. Through a simple and easy-to-implement electrical pulse treatment strategy, this invention can remove some oxygen atoms from the catalyst, increasing the number of unpaired electrons available for the catalytic reaction and improving reaction activity. Furthermore, this electrical pulse treatment strategy is simple and controllable, has universal applicability, and is expected to meet the needs of industrial production.

This invention relates to a MIL-100(Fe)-derived ErFeO3 / α-Fe2O3 gas-sensitive material, its preparation method, and its application, belonging to the field of gas sensor and environmental monitoring technology. A method for preparing a MIL-100(Fe)-derived ErFeO3 / α-Fe2O3 gas-sensitive material involves: slowly adding FeCl3 solution dropwise to H3BTC solution at room temperature; after uniform mixing, maintaining the mixture at 150℃~210℃ for 20 hours in a reaction vessel to obtain an orange-red substance; washing and drying to obtain MIL-100(Fe); dispersing the obtained MIL-100(Fe) in methanol; dissolving Er(NO3)3·6H2O in the above solution and reacting for a period of time; washing, centrifuging, and drying; transferring the obtained product to a muffle furnace and calcining under an oxygen atmosphere to obtain the ErFeO3 / α-Fe2O3 gas-sensitive material. The method for preparing porous metal oxide-based gas-sensitive materials using MOF materials as precursors and rare earth element modification proposed in this invention has advantages such as versatility, controllability, and recyclability compared to traditional methods for preparing metal oxide-based gas-sensitive materials.

The invention provides a model processing method and device, equipment, a storage medium and a computer program product. The method comprises the steps that the nth module is determined from a to-be-migrated model, the nth module comprises at least one operator, and n is a positive integer increasing in sequence; adding the nth module into the model deployed in the first hardware acceleration equipment to obtain a first model, and adding the nth module into the model deployed in the second hardware acceleration equipment to obtain a second model; performing model training on the first model to obtain a first model training result, and performing model training on the second model to obtain a second model training result; determining a first precision difference between the first model and the second model based on a difference between the first model training result and the second model training result; and when the first precision difference is greater than a first preset threshold value, determining a target operator with abnormal precision from at least one operator contained in the nth module.

This invention discloses a concave quadrilateral negative Poisson's ratio lattice sandwich structure and its design method, applicable to the field of sandwich structure technology. The method includes: starting from the characteristics of honeycomb structures, extracting the external features of the honeycomb structure, extracting the main structural elements and structural mechanisms, and then constructing concave quadrilateral structural units through inward folding design; integrating hexagonal honeycomb structures and square honeycomb structures with concave quadrilateral structural units to design different concave quadrilateral negative Poisson's ratio unit cell structures; clarifying the size range of structural elements for response surface optimization in Box-Behnken experimental design; designing the core layer by periodically arranging the unit cell structure according to the "edge-to-edge connection" and "corner-to-corner connection" method, and constructing the lattice core using a stacking method; finally, the upper panel, the concave quadrilateral negative Poisson's ratio lattice core, and the lower panel constitute hexagonal and square concave quadrilateral negative Poisson's ratio lattice sandwich structures. This invention is particularly suitable for engineering application scenarios with strict requirements for lightweight design and high energy absorption performance of components.

The invention relates to the technical field of software-defined network configuration, in particular to a software-defined network configuration method and system, comprising: receiving a user service request, and generating service features and service quality requirements through natural language processing and feature extraction, generating a network slicing strategy containing a binding relationship between a resource reservation parameter and a path based on a service level agreement mapping rule and network topology state information, and converting the network slicing strategy into an equipment-independent general configuration instruction based on a unified data model, and compiling the general configuration instruction into an equipment special instruction which can be executed by equipment of different manufacturers, issuing the equipment special instruction to target network equipment through a southbound interface of the SDN controller, receiving configuration confirmation information returned by the equipment, and verifying the configuration confirmation information so as to ensure that the equipment runs according to the service quality requirement. According to the invention, business demand analysis standardization, resource allocation refinement, equipment instruction unification and configuration execution verifiability can be realized, and the controllability and reliability of the SDN network are improved.

The present application relates to the field of organic synthesis, in particular to a preparation method of fluazifop-butyl, the method comprises the following steps: compound a and compound b are reacted in the presence of molecular sieve to obtain compound c, and compound c is reacted with chloropropyne to obtain fluazifop-butyl. The method has simple reaction steps, and improves the reaction yield and the purity of the product.

The invention discloses a preparation method of a high-oil-phase solid plant-based fat analogue, which comprises the following steps: adding hydrophobic modified chitosan gel into a soybean protein isolate solution, then adding linseed oil and transglutaminase into the homogenized mixed solution, carrying out enzymatic crosslinking, and then putting into a calcium chloride solution for ionic crosslinking. According to the preparation method disclosed by the invention, a network structure is formed by carrying out enzyme induction on soybean protein isolate, and a double-network structure is formed by introducing hydrophobic modified chitosan microgel through ionic crosslinking and is used as a structural framework, so that the technical bottleneck that a stable three-dimensional network is difficult to form by traditional emulsion gel under a high-oil-phase condition is successfully broken through; the obtained fat analogue shows a highly compact and uniform microstructure, key texture parameters such as hardness, adhesion and chewiness of the fat analogue are remarkably improved along with structural optimization, high unification of high oil phase load and high-strength texture is realized, and solid taste and morphological stability of animal fat can be truly simulated.

This invention discloses an interpretable low-light image enhancement method. It constructs an unpaired learning framework, EDC-Net, with enhancement and degradation branches forming a closed loop. The enhancement branch adaptively enhances the brightness and contrast of the low-light image through pixel-level affine mapping, while the degradation branch predicts physically meaningful degradation parameters such as color gain and exposure scaling. The enhanced image is then reconstructed into a low-light image through a chain of explicit degradation operators, forming a cyclic consistency constraint. Training employs a three-stage progressive optimization strategy: degradation warm-up, master adversarial training, and fine-tuning. During the inference phase, only the lightweight enhancement branch is run. This invention achieves physical interpretability and controllability of the enhancement process, avoids overexposure and artifacts, improves training convergence stability, and significantly increases inference efficiency. It is suitable for real-time image processing scenarios such as nighttime surveillance and autonomous driving.

This invention provides a controllable image description method, system, device, and medium based on multimodal fusion. The method includes the following steps: based on the original image features X... ν * and object regression box features X ν b The images are fused to generate sample image features X. ν Extract each word from the labeled language text, and label and positionally encode the extracted words to generate sample text description features X. w Generate a trajectory regression box based on the mouse trajectory segment, and generate sample trajectory features X based on the trajectory regression box. r Using a pre-built TO-Transformer feature fusion model, the sample image features X are processed. ν The sample text description feature X w and the sample trajectory feature X r Feature fusion is performed to generate sample fusion features; based on the sample fusion features, a controllable image description model is generated using a pre-built output model, thereby effectively improving the controllability and efficiency of image description.

The invention provides a cold and hot data layering method and system based on a heterogeneous storage medium, and relates to the technical field of data storage.The cold and hot data layering method comprises the steps that storage data of all storage nodes in a heterogeneous storage environment and operation parameters of all the storage nodes in the operation process are obtained; obtaining a load state of each storage node by utilizing a static cache mechanism; determining an attribute division rule and a storage matching rule based on the load state of each storage node and the access frequency information of the cache data; generating a migration signal based on the attribute division rule and the storage matching rule; obtaining a target migration signal by using a pulse regulation and control technology; and according to the target migration signal, migrating the hot target data conforming to the hot data attribute in the cache data to the high-performance storage node, thereby realizing hot and cold data layering based on the heterogeneous storage medium, and realizing intelligent identification and efficient layered storage of the hot and cold data in the heterogeneous storage environment.

The present application relates to the technical field of traditional Chinese medicine preparation, and discloses a traditional Chinese medicine composition with cough-relieving effect and a preparation method thereof, which is composed of one or both of crude drug powder of summerleaf euonymus and summerleaf euonymus extract, and contains the following components in mass fraction: 1-15 parts of summerleaf euonymus crude drug powder and 1-10 parts of summerleaf euonymus extract.In the present application, the medicinal activity of summerleaf euonymus in the field of cough relief is found and verified, the therapeutic effect of summerleaf euonymus on various types of cough is determined, the application limitation of summerleaf euonymus in the prior art, i.e. only used for promoting blood circulation to remove meridian obstruction and relieving qi stagnation and pain, is broken, and the clinical application range and medicinal value of summerleaf euonymus are greatly expanded.

This invention discloses a hydrogen evolution reaction catalyst, its preparation method, and its application. The hydrogen evolution reaction catalyst comprises the following steps: S1: Dissolving an amine compound in a solvent, adding a transition metal salt, and after the transition metal salt dissolves, adding a platinum source and stirring to disperse it evenly to obtain a mixed solution; S2: Heating the mixed solution to dryness, and grinding the dried powder evenly in a mortar to obtain a precursor powder; S3: Calcining the precursor powder in an inert gas atmosphere, then soaking the calcined product in acid, washing until neutral, and drying to obtain the hydrogen evolution reaction catalyst. Due to its unique structure, the hydrogen evolution reaction catalyst of this invention exhibits excellent stability under strong acid and high voltage conditions.

The invention relates to the technical field of biological medicine. The invention provides a novel, efficient and safe mesothelin chimeric antigen receptor and a coding mRNA thereof, and also provides a method for performing T cell engineering transformation by using the mesothelin chimeric antigen receptor mRNA, so as to treat tumors expressing mesothelin. According to the technical scheme, T cells are efficiently transfected in a non-virus mode, transient expression of CAR protein is achieved, and the safety of the CAR-T cells is enhanced; meanwhile, the limitation of the existing CAR-T cell therapy during solid tumor treatment is overcome, migration and infiltration of CAR T cells to tumor parts are improved, and the effect of treating solid tumors expressing MSLN is better enhanced.

This invention belongs to the field of high-hardness wear-resistant coating technology, and discloses a method and application for preparing a titanium nitride / titanium oxide ultra-hard wear-resistant coating using supersonic arc spraying technology. The high-hardness, wear-resistant, and corrosion-resistant composite ceramic coating is TiN-TiO2-TiN. 0.3 This composite ceramic coating features adjustable thickness and microstructure, enabling the uniform, layered distribution of titanium nitrides and oxides, with the proportion of ultra-hard titanium nitrides exceeding 80%. Using readily available pure titanium wire as raw material, and employing supersonic arc spraying technology, the coating achieves wear-resistant and corrosion-resistant ceramic composite coatings on the surfaces of commonly used structural steel and aluminum alloy engineering equipment and materials through precise adjustment of spraying parameters. The coating preparation method is simple, with no stringent requirements for the construction and processing environment, and boasts high preparation efficiency. This coating can be used for surface protection of various workpieces and engineering structures in marine environments and areas with severe wear conditions near the sea.