29 results about "Scaffold" patented technology

1. Name of the product in this design: Construction scaffold. 2. Purpose of this design: for building construction. 3. The key design feature of this product is its shape. 4. The image or photograph that best illustrates the design's key points: 3D view 1.

1. Name of the product in this design: scaffolding. 2. Purpose of this design: for building construction. 3. The key design feature of this product is its shape. 4. The image or photograph that best illustrates the design's key points: a 3D model.

The application provides a method and device for creating an intelligent application, electronic equipment and a medium, which can be widely applied in the field of computer technology. The method for creating an intelligent application comprises: obtaining a target requirement of a target object, and collecting training data from a target data source based on the target requirement; processing the training data through a model training scaffold of a machine learning platform to obtain preprocessed data; establishing a pre-training model through the model training scaffold of the machine learning platform, and training the pre-training model according to the preprocessed data to obtain a target pre-training model; storing the target pre-training model in a product library; and creating an intelligent application based on the target pre-training model in the product library through an agent application scaffold or an inference service scaffold of a technical platform. The application integrates a machine learning platform and a technical platform to realize the whole-process deployment of an intelligent application, which is conducive to improving the efficiency of intelligent application development.

1. The name of the design product: computer support. 2. The use of the design product: the design product is used for a computer support. 3. The design points of the design product: in shape. 4. The picture or photo that best indicates the design points: perspective view.

This invention provides an automatic generation method for full prismatic meshes based on elastic energy optimization, belonging to the field of computer-aided engineering and numerical simulation mesh generation technology. This method constructs a coarse geometric proxy and combines it with a regularized elastic energy model for layered parallel elastic relaxation. Furthermore, it effectively restores the thickness of prisms in narrow regions using global collision resolution and local scaffold relaxation techniques, and employs a multi-layer anisotropic prismatic mesh generation algorithm based on Hermite interpolation to control layer thickness evolution and orthogonality. This invention effectively overcomes the challenges of self-intersection and element flipping in prismatic meshes caused by complex grooves, slits, and other geometric features, mathematically guaranteeing the global injectivity and geometric validity of the prismatic mesh. It also decouples global energy optimization into a parallel local energy minimization problem, significantly reducing computational complexity to an acceptable range for engineering applications, ultimately achieving efficient, robust, and fully automated generation of full prismatic boundary layer meshes for complex industrial shapes.

The present application relates to a kind of helical gradient lattice structure design method and medium, it is related to the lattice structure design technical field based on computer processing.The method comprises the following steps: constructing outer contour, introducing logarithmic spiral function to establish the array path of parameter curve, establishing double-lattice composite structure as the basis of lattice structure growth, gradient design is carried out on the basis of lattice composite structure, including: sequentially each point in array path is designed, lattice size parameter design and lattice structure porosity design are carried out to strut parameter;The core structure and peripheral structure of connecting interface are obtained, and the model obtained by modeling is obtained.The mechanical properties of helical gradient lattice structure are improved, the pore connectivity and distribution law are optimized, so that the layer-by-layer increasing of porosity and the continuous transition of double-layer structure interface connection are realized, the material utilization efficiency is improved while guaranteeing the stability of structure, cell migration and bone tissue growth path are effectively guided, and the bone integration ability of scaffold is optimized.

The application relates to the technical field of construction safety monitoring, in particular to a construction scaffold safety monitoring method and system based on COMSOL, which comprises the following steps: S1, data acquisition; S2, data preprocessing; S3, three-dimensional modeling; S4, finite element simulation analysis; the application designs an integrated process based on COMSOL software, avoids the format compatibility risk caused by cross-software when multiple software is used, the system software and hardware tool cost is low and easy to obtain, the technical threshold is low, the whole process can be independently completed through short-term learning, the training and implementation cost is low, the result can be directly generated to form an intuitive report and a visual chart, the risk area can be directly located and safety determination can be completed, the application is suitable for various scenes, and is suitable for popularization and use.

The application provides a system, a device and a storage medium for realizing cross-platform of applets, comprising: an RN application scaffold, which is used for packing an application data packet after a code program is written, uploading the application data packet to a server or starting a local Metro service; an APP base, which is used as a carrier for running the application data packet; and the application data packet is obtained through the server or the Metro service, and the application data packet is developed and run through a native APP. The application also relates to a device and a storage medium comprising the cross-platform realization system of the applets. The code is compiled into different platform native codes, so that the application has the same experience as the native application, and the problems caused by the performance defects of WebView are solved while the cross-platform is realized.

The application discloses a kind of risk prediction methods in the process of scaffold, belong to scaffold technical field.It includes: in the key parts of scaffold deployment sensor cluster, real-time acquisition dynamic response and geometric deformation parameter;Physical information neural network is constructed, structural dynamics equation is embedded into loss function as physical constraint, network is trained and finite element model is corrected, obtain digital twin;By analyzing natural frequency variation, frequency band energy variation and modal curvature variation, overall stiffness degradation is judged, local damage is identified and quantified fastener loosening;Image is collected by camera, and construction conditions are identified and quantified by target detection algorithm;Damage information and working condition parameters are input into digital twin for stress evolution simulation, predict future stress response indicators and compare with safety threshold, generate graded warning information.Structure state and construction conditions are deeply integrated, with stress trend prediction capability, which improves risk prediction accuracy and timeliness.

1. Name of the product in this design: scaffolding. 2. Purpose of this design: Scaffolding used in building construction. 3. The key design feature of this product is its shape. 4. The image or photograph that best illustrates the design's key points: 3D rendering 1.

1. Name of the product in this design: Bracket (Construction Engineering). 2. Application of this design: This design is used for construction support in building engineering. 3. The key design feature of this product is its shape. 4. The image or photograph that best illustrates the design's key points: a 3D model.

This disclosure relates to the field of information technology, and in particular to a method and system for implementing an arrangable project development scaffold. The method includes: a factor management module that creates, configures, and publishes multiple scaffolding factors for a project to be developed, and provides a factor management library for storing these multiple scaffolding factors; a template creation module that provides a scaffolding template library storing various preset scaffolding templates, and, in response to a user selecting at least one preset scaffolding template from the library for the project to be developed, and performing factor selection and factor arrangement operations on multiple scaffolding factors within the at least one preset scaffolding template, generating a target scaffolding template; and a scaffolding generation module that, in response to the user's selection of the target scaffolding template, generates a target scaffolding based on the target scaffolding template, so as to utilize the target scaffolding to perform development tasks. This disclosure automates and automates the entire development process through software scaffolding, thereby improving development efficiency and reducing repetitive work.

1. Name of the product in this design: scaffolding. 2. Purpose of this design: For safe high-altitude construction during building construction. 3. The key design feature of this product is its shape. 4. The image or photograph that best illustrates the design's key points: 3D view 1.

The application discloses a method for processing a fine boring support hole and belongs to the technical field of machining; the method is based on the user macro program function of a numerical control system, a general macro program with structure solidification and no mode selection variable is called, and self-adaptive fine boring processing of an intermittent coaxial hole system is realized; the method comprises the following steps: positioning to a processing starting point; calling a macro program and inputting an initial tool relief distance parameter and alternately appearing hole section thickness and hole gap parameters in a sequential assignment mode; a sequential execution state machine based on parameter existence is adopted in the macro program, a processing section number is automatically identified through continuous IF condition judgment, and corresponding processing units are executed; after one side processing is completed, a coordinate mirror image function is automatically activated to process the other side hole system. According to the application, an operator can directly input parameters according to drawing size without any calculation, the program body is not modified with the change of the number of processing holes, programming efficiency and program universality are remarkably improved, and the processing efficiency and precision are improved through air block rapid movement and mirror image processing.

The application discloses an outdoor scene three-dimensional reconstruction method based on a deep learning technology. The method comprises the following steps: step 1, inputting pictures taken from multiple perspectives to generate a voxel grid; step 2, sending the voxel grid into a scaffold, and outputting multi-scale feature fields through 3D sparse convolution, feature pyramid and attention mechanism; step 3, using 3D CNN to perform geometric decoding on the multi-scale features to output parameterized ellipsoids; step 4, performing post-processing on the parameterized ellipsoids to realize ellipsoid instantiation, performing differentiable rasterization on Gaussian ellipsoids, and performing filtering operation on the rendered images after rasterization; and step 5, comparing the filtered images with real images, combining light loss and image loss to perform back propagation and update parameters. Through the design of a new scaffold, a filtering module and a loss function, the application realizes the fusion of multi-scale features and the efficient processing of sparse data, the model can better filter out noise, provide clearer and more consistent edge and texture information, solve the problems of noise, geometric edge sawtooth and artifacts existing in the rasterization process, enhance the contrast of different light regions, solve the problem that different materials and textures in an outdoor scene perform differently under light irradiation, and thus improve the reconstruction accuracy.

This invention discloses a chromosome-level gapless genome assembly system and method based on a multi-layer computational graph, belonging to the field of bioinformatics. The system includes a data preprocessing module, a multi-layer computational graph construction module, an inter-layer communication module, a pathfinding module, a sequence generation module, and a quality assessment module. The multi-layer computational graph structure comprises four layers: a first-layer sequence overlap graph handles read-level overlap relationships; a second-layer fragment connection graph handles contig-level connection relationships; a third-layer scaffold construction graph utilizes Hi-C data for chromosome-level assembly; and a fourth-layer gap-filling graph employs differentiated filling strategies for different types of gaps. The inter-layer communication module enables bidirectional information transfer and conflict resolution. This invention achieves true chromosome-level gapless genome assembly, improving assembly continuity by 3-5 times and reducing the number of gaps by more than 90%.

This invention discloses a phased-cutting enzyme-mediated leader editor and editing system, and their applications, belonging to the field of biotechnology. This editor integrates Cas9-D10A and PE7max, and is composed of a Cas9-H840A mutant, MMLV reverse transcriptase, LA protein, Cas9-D10A mutant, and pegRNA. By synergistically utilizing the activities of the two Cas9 cutting enzymes, it generates spatially symmetrical and temporally phased DNA cuts at the target site, thereby accelerating the repair of edited products. Simultaneously, key Cas9 mutation sites are screened through protein language optimization to further optimize the editor. Results show that this editor significantly improves editing efficiency, and the optimized editor further enhances the editing efficiency of endogenous sites without significantly increasing insertions or deletions, while maintaining editing specificity for scaffold byproducts. This solves the problems of insufficient PE editing efficiency and high indel ratio in existing PE editing methods.

This invention relates to a scaffolding safety status simulation system based on digital twins, belonging to the field of building safety technology. The system includes a physical field data acquisition module that collects real-time scaffolding structural response data and environmental data; a digital twin construction and simulation engine that drives the digital twin to perform safety status simulations based on the data to predict risks; a virtual-real linkage emergency response training module that overlays risk indicators and emergency plans onto a real-world scenario through an augmented reality interaction unit; a plan execution feedback unit that receives user response instructions; and a decision-making closed-loop simulation unit that feeds back instructions to the digital twin to simulate the execution status and updates the augmented reality information display. This invention enables efficient and intuitive decision-making interaction between on-site personnel and virtual simulation, forming a virtual-real linkage decision verification closed loop and improving emergency response efficiency.

1. Name of the product in this design: Construction scaffold. 2. Purpose of this design: A working platform for building construction. 3. The key design feature of this product is its shape. 4. The image or photograph that best illustrates the design's key points: 3D view 1.

The application relates to the technical field of intelligent manufacturing, and provides an intelligent lightweight method and device for a support structure of additive manufacturing based on virtual testing. The method forms a design region according to original model structure expansion, calculates material distribution of the design region according to load, constraint and optimization target of the support structure, interacts with a virtual topology optimization environment based on reinforcement learning intelligent agents and artificial intelligence technology, and forms a support structure topology optimization Pareto optimal solution set. Stress simulation analysis is performed on the support topology optimal solution set, a lattice gradient is calculated, and interaction is performed between reinforcement learning and a virtual lattice structure reinforcement environment to form a lightweight Pareto optimal solution set of the support structure. The method is based on the reinforcement learning mode of the topology optimization intelligent agents and the lattice reinforcement intelligent agents in the virtual simulation environment, and the lightweight degree and the structural strength of the support structure are improved without frequent manual debugging and physical printing, so that efficient and intelligent lightweight design is realized.

1. Name of the product in this design: Shelf. 2. Purpose of this design: Used as a greenhouse support frame. 3. The key design feature of this product is its shape. 4. The image or photograph that best illustrates the design's key points: 3D view 1.

This invention provides a method for automatically generating welding programs for hydraulic support side plates based on MBD 3D models and parametric trajectories. The method includes: establishing a side plate weld trajectory library and a standard program text library; establishing a coordinate system; establishing a parametric trajectory library; obtaining parameters from the 3D model; matching parametric trajectory templates; generating offline welding programs; assigning coordinate information of each welding program point in the obtained PLM parametric trajectory template to the points in the standard program text through matching relationships, and outputting the offline welding program. This method transforms traditional on-site teaching programming and offline programming into parametric programming based on 3D models, requiring no hardware support, and enabling offline welding programs to be output during product design using MBD parameters.

A computing system is provided, including one or more memory devices and one or more processing devices. In an initial interaction session, the one or more processing devices execute an initial instance of a scaffolded machine learning (ML) system that interacts with an initial user over a user interface. The scaffolded ML system includes scaffolding code configured to call one or more ML models. The one or more processing devices store, in the one or more memory devices, an ML system state of the scaffolded ML system during the initial interaction session. In each of a plurality of subsequent interaction sessions, the one or more processing devices retrieve the ML system state, initialize a subsequent instance of the scaffolded ML system with the ML system state, and execute the subsequent instance of the scaffolded ML system.

This invention provides a method for automatically generating blanking drawings for non-standard hydraulic support plates. The method involves establishing a process expansion rule library for the outer and inner contours of the non-standard part in 3D software; loading a product component model into the 3D software; projecting the target part from the product component model to form a blanking drawing sketch; identifying the outer and inner contour features of the target part from the blanking drawing sketch; determining the assembly relationship between the outer contour edge of the target part and surrounding parts; calling the corresponding outer contour process expansion rule from the process expansion rule library to offset the outer contour edge; determining the geometric features of the inner contour edge of the target part; calling the corresponding inner contour process expansion rule from the process expansion rule library to offset the inner contour edge; and generating the blanking drawing of the target part based on the offset blanking drawing sketch. This method has the advantages of automatically generating blanking drawings by comprehensively planning based on 3D model features, assembly relationship analysis, and process expansion rules, thereby improving efficiency and reducing costs.

A computing system (10) is provided, including one or more memory devices (14) and one or more processing devices (12). In an initial interaction session (20), the one or more processing devices execute an initial instance (22) of a scaffolded machine learning (ML) system (30) that interacts with an initial user over a user interface (24). The scaffolded ML system includes scaffolding code (36) configured to call one or more ML models (34). The one or more processing devices store, in the one or more memory devices, an ML system state (40) of the scaffolded ML system during the initial interaction session. In each of a plurality of subsequent interaction sessions (26), the one or more processing devices retrieve the ML system state, initialize a subsequent instance (28) of the scaffolded ML system with the ML system state, and execute the subsequent instance of the scaffolded ML system.

The present application relates to a kind of helical gradient lattice structure design method and medium, it is related to the lattice structure design technical field based on computer processing.The method comprises the following steps: constructing outer contour, introducing logarithmic spiral function to establish the array path of parameter curve, establishing double-lattice composite structure as the basis of lattice structure growth, gradient design is carried out on the basis of lattice composite structure, including: sequentially each point in array path is designed, lattice size parameter design and lattice structure porosity design are carried out to strut parameter;The core structure and peripheral structure of connecting interface are obtained, and the model obtained by modeling is obtained.The mechanical properties of helical gradient lattice structure are improved, the pore connectivity and distribution law are optimized, so that the layer-by-layer increasing of porosity and the continuous transition of double-layer structure interface connection are realized, the material utilization efficiency is improved while guaranteeing the stability of structure, cell migration and bone tissue growth path are effectively guided, and the bone integration ability of scaffold is optimized.

A scaffold composite, and a preparation method and use thereof are provided. The preparation method includes: mixing a graphene oxide (GO) dispersion and a polylactic acid (PLA) dispersion, and subjecting a resulting mixed solution to curing and melt extrusion in sequence to obtain a 3-dimensional (3D)-printable GO / PLA composite wire; subjecting the 3D-printable GO / PLA composite wire to 3D printing to obtain a scaffold; and annealing the scaffold to obtain the scaffold composite.