5results about How to "For subsequent analysis" patented technology

This invention belongs to the field of spectral data processing technology, specifically a spectral data processing system and method based on in-situ data sensing and intelligent analysis. This invention employs in-situ optical imaging, absorption spectroscopy, fluorescence spectroscopy, and PL mapping to acquire real-time three-dimensional spectral data of time, wavelength, and intensity for real-time monitoring of material crystallization, defects, and luminescence properties. It uses an automatic invalid value detection and cleaning algorithm to address data quality issues; it extracts peak position and half-peak width (WHM) characteristic parameters from the spectral data using peak position extraction and WHM calculation methods; it uses a nonlinear optimization algorithm to perform multi-peak Gaussian fitting on the spectral data; and it employs a signal-slot mechanism to achieve real-time synchronization of data presentation and fitting analysis, forming a complete closed loop of in-situ testing, data sensing, processing, analysis, synchronization, and export. This invention achieves real-time acquisition, efficient processing, accurate analysis, and automatic synchronization of spectral data, providing technical support for standardized processing and traceable analysis of spectral data.

This utility model relates to the field of municipal supplies, specifically a portable road vehicle counter, including a laser emission counter, a clock module, a microprocessor, a memory, and a power supply module. The laser emission counter includes a transmitter and a receiver respectively located on both sides of the road segment to be measured. The transmitter emits a laser beam, and the receiver receives the laser beam and generates an electrical signal. The clock module, laser emission counter, and memory are all communicatively connected to the microprocessor. When the microprocessor receives a counting signal triggered by a vehicle blocking the laser beam, it simultaneously acquires the current time information provided by the clock module, binds the counting result corresponding to the counting signal with the time information, and stores it in the memory. This solution can count the number of vehicles passing through within a certain time period, thereby determining the frequency and temporal pattern of traffic congestion on a certain road segment, allowing for adjustments to construction organization and facilitating road engineering modifications.

The application discloses a temperature and humidity monitoring system and relates to the technical field of temperature and humidity control.The system comprises an intelligent device configuration module, a distributed real-time sensing module, a time series data tracing module, an adaptive intelligent export module and a multi-dimensional dynamic early warning module.The intelligent device configuration module generates device configuration data.The distributed real-time sensing module constructs a dynamic monitoring panel on a UI interface.The time series data tracing module models the historical data of a target detector in a time series and generates an interactive trend curve.The adaptive intelligent export module converts the full data of a corresponding detector into an OFFICE compatible format.The multi-dimensional dynamic early warning module receives real-time data from the distributed real-time sensing module and historical trend data from the time series data tracing module, compares the real-time data with the historical trend data through real-time threshold comparison and trend prediction analysis, and comprehensively generates multi-level early warning signals.The application realizes flexible device configuration, edge computing and dynamic sampling through self-defined port mapping and elastic expansion, improves data sensing accuracy, time series modeling and intelligent labeling, and breaks through the limitations of traditional systems, such as fragmented functions, complex operation and slow response.

This invention belongs to the field of laser measurement technology and discloses a tool for detecting the internal diameter, roundness, and straightness of a cylinder. It includes an equidistant detection arm assembly, with an axis correction arm assembly surrounding the equidistant detection arm assembly and supporting it on the cylinder's internal axis. Three sets of detection disk assemblies are located at one end of the equidistant detection arm assembly. The correction disks of this invention drive multiple support arms to perform synchronous outward extension movements via the auxiliary arm. Multiple traveling wheels at the top of the support arms abut against the inner wall of the cylinder, forming an axis correction structure. In this way, when the equidistant detection arm assembly is in use, its axis coincides with the cylinder's axis, facilitating the acquisition of detection data during subsequent detection of the cylinder's internal diameter, roundness, and straightness. The detection disk assembly of this invention is equipped with a self-rotation protection module, which enables the laser rangefinder to spin into the brush arm for self-rotation cleaning and protection.

This invention provides a device for inspecting structures using a flight-climbing integrated UAV based on synchronous networking, belonging to the field of UAV technology. The device includes: a flight control module that generates positive pressure thrust to drive flight; an adsorption module that generates negative pressure adsorption force to make the device adhere to the wall of the structure being tested; and a chassis electric drive module that drives the device to move omnidirectionally on the wall. An algorithm processing module receives environmental perception information, coordinates the operation of each module, executes an adaptive throttle control algorithm to compensate for voltage decay and maintain constant rotational speed, and executes a flight-adsorption switching algorithm to achieve automatic and smooth transition from flight to adsorption mode. Simultaneously, the algorithm processing module provides a unified time reference for the data acquisition module based on the synchronous networking function, achieving nanosecond-level synchronous processing of detection data between multiple devices. This invention solves the problems of low efficiency in manual inspection, the inability of a single platform to handle both flight and adsorption operations, and the lack of multi-device collaborative capabilities in existing technologies.