超分辨光存储分辨率数据

超分辨光存储分辨率测试数据与“考核指标2.3在纳米复合材料中降低超分辨光存储峰值功率密度”相对应，是课题2研究内容4研究产生的科学数据，并支撑“考核指标2.5专利及考核指标2.6论文”。 （1）数据内容：该数据集为纳米复合材料在搭建的双光束光存储系统中分辨率读写测试过程中产生的数据，包括双光束光存储系统整体图片和主要模块、纳米复合材料分辨率成像原始数据以及优化后的数据、纳米复合材料分辨率算法处理后数据、纳米复合材料读写测试过程中的软件截图、纳米复合材料打点控制程序代码、纳米复合材料最终分辨率结果展示。 （2）数据类型：图片、文件。 （3）数据量：6.54 MB。 （4）采集方案：双光束光存储系统整体图片的整体图片由手机相机拍摄获得。纳米复合材料读写原始数据由自行搭建的双光束光存储系统采集获得。纳米复合材料分辨率成像原始图像数据通过纳米位移台扫描和单光子雪崩探测器采集获得。纳米复合材料分辨率成像数据经过ImageJ软件优化处理后获得。纳米复合材料分辨率算法处理后数据经过Python软件算法处理后获得并通过Origin软件绘制获得。纳米材料成像测试过程中的软件截图由Window系统自带截图软件获得，纳米复合材料打点控制程序代码由Matlab软件生成、纳米复合材料最终分辨率结果通过PPT软件整合展示。 （5）采集地点：上海理工大学 （6）采集时间：2021年12月-2024年11月。 （7）采集设备：双光束光存储系统整体图片数据由手机相机（华为Mate20）采集，纳米复合材料读写由自行搭建的双光束光存储系统采集，纳米复合材料成像原始图像数据通过纳米位移台扫描和单光子雪崩探测器(Count T100-FC)采集获得采集，纳米复合材料成像测试过程中的软件截图由系统自制软件采集并通过Windows自带截图软件截取。This super-resolution optical storage resolution test dataset corresponds to Assessment Indicator 2.3 "Reducing the peak power density of super-resolution optical storage in nanocomposites", which is scientific data generated from Research Content 4 of Task 2, and supports Assessment Indicator 2.5 (patents) and Assessment Indicator 2.6 (papers). (1) Data Content: This dataset contains data generated during the resolution read-write test of nanocomposites in the self-built dual-beam optical storage system, including overall images and main modules of the dual-beam optical storage system, original and optimized resolution imaging data of nanocomposites, data processed by resolution algorithms for nanocomposites, software screenshots during the read-write test of nanocomposites, dotting control program code for nanocomposites, and final resolution result displays of nanocomposites. (2) Data Type: Images, files. (3) Data Volume: 6.54 MB. (4) Collection Scheme: The overall images of the dual-beam optical storage system were captured by a smartphone camera. The original read-write data of nanocomposites were collected by the self-built dual-beam optical storage system. The original resolution imaging data of nanocomposites were collected via nanoscale stage scanning and a single-photon avalanche detector. The optimized resolution imaging data of nanocomposites were obtained by processing the original data with ImageJ software. The data processed by resolution algorithms for nanocomposites were generated via Python-based algorithm processing and plotted with Origin software. The software screenshots during the nanocomposite imaging test were captured by the built-in screenshot tool of the Windows system. The dotting control program code for nanocomposites was generated using Matlab software. The final resolution results of nanocomposites were integrated and displayed via PPT software. (5) Collection Location: University of Shanghai for Science and Technology. (6) Collection Time: December 2021 to November 2024. (7) Collection Equipment: The overall images of the dual-beam optical storage system were collected by a Huawei Mate20 smartphone camera. The read-write operations of nanocomposites were conducted using the self-built dual-beam optical storage system. The original resolution imaging data of nanocomposites were collected via nanoscale stage scanning and a single-photon avalanche detector (Count T100-FC). The software screenshots during the nanocomposite imaging test were captured by the in-house developed software of the system and further intercepted via the built-in Windows screenshot tool.

搜集汇总

背景与挑战

背景概述

该数据集聚焦于超分辨光存储分辨率测试，源自上海理工大学在2021年12月至2024年11月期间，针对纳米复合材料在双光束光存储系统中的读写测试过程。它包含图片、文件等多种类型的数据，总容量为6.54 MB，旨在支持相关考核指标和研究成果。