[AI73-5]材料技术方案探索-获取脑图
获取生成的材料技术脑图数据。
请求参数
此 API 接口支持的参数列表
| 名称 | 类型 | 示例 | 描述 |
|---|---|---|---|
必填 | string | 80d440b7-80a5-4233-a75f-ab72b0885c88 | 任务唯一标识符,由提交任务接口返回 |
响应结构
API 响应数据的结构说明
| 字段名 | 类型 | 示例 | 描述 |
|---|---|---|---|
data | object | - | 响应数据 |
status | string | SUCCEED | 返回状态值(成功,生成中,失败) |
solution | object | {
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{
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"data": {
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"tech_version": "2"
},
"size": {
"width": 300,
"height": 64
},
"view": "vue-shape-view",
"shape": "idea-node",
"zIndex": 1000,
"position": {
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"y": 132
}
}
],
"title": "如何在腹腔镜中安装模拟内脏力反馈的装置,使外科医生能够实时感知器械与内脏组织接触的力度(0.1-5N范围),同时满足微创手术的空间限制(5-12mm直径)、湿润环境适应性、低延迟要求(<10ms)和操作自然性?需要解决传感器微型化与高精度间的矛盾,以及在有限空间内实现力信息的采集、传输和反馈的技术挑战。"
} | 解决方案列表 |
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"tech_version": "2"
},
"size": {
"width": 300,
"height": 64
},
"view": "vue-shape-view",
"shape": "idea-node",
"z_index": 1000,
"position": {
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"y": 132
}
}
],
"title": "如何在腹腔镜中安装模拟内脏力反馈的装置,使外科医生能够实时感知器械与内脏组织接触的力度(0.1-5N范围),同时满足微创手术的空间限制(5-12mm直径)、湿润环境适应性、低延迟要求(<10ms)和操作自然性?需要解决传感器微型化与高精度间的矛盾,以及在有限空间内实现力信息的采集、传输和反馈的技术挑战。",
"tech_version": "2"
} | 思维导图节点列表,包含所有节点和连接线信息 |
id | string | 0f26fa4e9305ef86db199ba4d116f233 | 节点唯一标识符 |
data | object | {
"initd": true,
"order": "1",
"status": "success",
"sys_content": "如何在腹腔镜中安装模拟内脏力反馈的装置,使外科医生能够实时感知器械与内脏组织接触的力度(0.1-5N范围),同时满足微创手术的空间限制(5-12mm直径)、湿润环境适应性、低延迟要求(<10ms)和操作自然性?需要解决传感器微型化与高精度间的矛盾,以及在有限空间内实现力信息的采集、传输和反馈的技术挑战。",
"tech_version": "2"
} | 节点的具体数据内容 |
initd | boolean | true | 是否已初始化 |
order | string | 1 | 节点排序编号,用于标识节点在思维导图中的层级 |
status | string | success | 节点状态,如success表示成功生成 |
node_id | string | 4e2660fb9e04166b28b835c4d46c5bd1 | 节点唯一标识符 |
route_id | string | 4e2660fb9e04166b28b835c4d46c5bd1 | 路由标识符,关联到父节点 |
reference | array | [
{
"PN": "CN116026514A",
"APD": "29 Mar 2023",
"PBD": "",
"TITLE": "Surgical clamp-oriented six-dimensional force sensor and nonlinear decoupling and fault-tolerant method",
"CONTENT": "By combining the elastic deformation module and fiber grating in the laparoscopic surgical clamp, and using the extreme learning machine model and the seagull algorithm, high-precision six-dimensional force and torque detection is achieved, which solves the problem of poor biocompatibility and vulnerability of sensors in the existing technology. The problem of electromagnetic interference improves the success rate and safety of surgery.",
"ORG_INFO": [
{
"id": "c2622ff840571e887a776e07b192ee06",
"logo": "https://filecdn.shuidi.cn/img/upload/images_logo/29/ea/39/29ea39ecfa47783e58f4e2bf86451aef.png/0x0.png",
"name": "Wuhan University of Technology",
"site": "www.whut.edu.cn",
"name_cn": "武汉理工大学",
"name_en": "Wuhan University of Technology",
"website": "http://www.whut.edu.cn",
"state_id": "80cd8682-4344-3436-88b9-cfba03d34b78",
"entity_id": "c2622ff840571e887a776e07b192ee06",
"country_id": "5a365096-b2a6-31cb-acdf-1de1f5ab3abe",
"state_name": "Hubei Sheng",
"description": "Wuhan University of Technology (WUT or WHUT), located in Wuchang District and Luonan Subdistrict, Hongshan District in Wuhan, Hubei, China, was merged on May 27, 2000, from three universities: Wuhan University of Technology (established in 1948), Wuhan Transportation University (established in 1946) and Wuhan Automotive Polytechnic University (established in 1958). WUT is one of the leading Chinese universities accredited by the Ministry of Education and one of the universities constructed in priority by the \"State Project 211\" for Chinese higher education institutions. It is also a Chinese Ministry of Education Double First Class Discipline University, with Double First Class status in certain disciplines.",
"entity_type": "Education",
"country_name": "China",
"display_name": "Wuhan University of Technology",
"founded_date": 19480101,
"headquarters": {
"state": "湖北省",
"country": "中国",
"location": "湖北省武汉市洪山区珞狮路122号"
},
"normalized_name": "WUHAN UNIV OF TECH",
"original_address": {
"state": "湖北省",
"country": "中国",
"location": "湖北省武汉市洪山区珞狮路122号"
},
"normalized_entity_type_en": "Education"
}
],
"SOLUTION_ID": "83d60b08-83e9-4d17-9b57-955290e53b1e",
"SOLUTION_TYPE": "PATENT"
},
{
"PN": "",
"APD": "",
"PBD": "2019-08-12",
"TITLE": "Ultraminiature and Flexible Sensor Based on Interior Corner Flow for Direct Pressure Sensing in Biofluids",
"CONTENT": "<jats:title>Abstract</jats:title><jats:p>Conventional pressure sensing devices are well developed for either indirect evaluation or internal measuring of fluid pressure over millimeter scale. Whereas, specialized pressure sensors that can directly work in various liquid environments at micrometer scale remain challenging and rarely explored, but are of great importance in many biomedical applications. Here, pressure sensor technology that utilizes capillary action to self‐assemble the pressure‐sensitive element is introduced. Sophisticated control of capillary flow, tunable sensitivity to liquid pressure in various mediums, and multiple transduction modes are realized in a polymer device, which is also flexible (thickness of 8 µm), ultraminiature (effective volume of 18 × 100 × 580 µm<jats:sup>3</jats:sup>), and transparent, enabling the sensor to work in some extreme situations, such as in narrow inner spaces (e.g., a microchannel of 220 µm in width and 100 µm in height), or on the surface of small objects (e.g., a 380 µm diameter needle). Potential applications of this sensor include disposables for in vivo and short‐term measurements.</jats:p>",
"ORG_INFO": [],
"SOLUTION_ID": "fcebd80d-19ce-3b6c-9bc7-f2ee3a0be021",
"SOLUTION_TYPE": "PAPER"
}
] | 参考文献列表,包含相关的专利、论文等参考资料 |
pn | string | CN116026514A | 专利号或出版号 |
apd | string | 29 Mar 2023 | 申请日期或应用日期 |
pbd | string | 2019-08-12 | 公开日期或发布日期 |
title | string | Surgical clamp-oriented six-dimensional force sensor and nonlinear decoupling and fault-tolerant method | 解决方案标题 |
content | string | By combining the elastic deformation module and fiber grating in the laparoscopic surgical clamp, and using the extreme learning machine model and the seagull algorithm, high-precision six-dimensional force and torque detection is achieved, which solves the problem of poor biocompatibility and vulnerability of sensors in the existing technology. The problem of electromagnetic interference improves the success rate and safety of surgery. | 解决方案的详细内容描述 |
org_info | array | [
{
"id": "c2622ff840571e887a776e07b192ee06",
"logo": "https://filecdn.shuidi.cn/img/upload/images_logo/29/ea/39/29ea39ecfa47783e58f4e2bf86451aef.png/0x0.png",
"name": "Wuhan University of Technology",
"site": "www.whut.edu.cn",
"name_cn": "武汉理工大学",
"name_en": "Wuhan University of Technology",
"website": "http://www.whut.edu.cn",
"state_id": "80cd8682-4344-3436-88b9-cfba03d34b78",
"entity_id": "c2622ff840571e887a776e07b192ee06",
"country_id": "5a365096-b2a6-31cb-acdf-1de1f5ab3abe",
"state_name": "Hubei Sheng",
"description": "Wuhan University of Technology (WUT or WHUT), located in Wuchang District and Luonan Subdistrict, Hongshan District in Wuhan, Hubei, China, was merged on May 27, 2000, from three universities: Wuhan University of Technology (established in 1948), Wuhan Transportation University (established in 1946) and Wuhan Automotive Polytechnic University (established in 1958). WUT is one of the leading Chinese universities accredited by the Ministry of Education and one of the universities constructed in priority by the \"State Project 211\" for Chinese higher education institutions. It is also a Chinese Ministry of Education Double First Class Discipline University, with Double First Class status in certain disciplines.",
"entity_type": "Education",
"country_name": "China",
"display_name": "Wuhan University of Technology",
"founded_date": 19480101,
"headquarters": {
"state": "湖北省",
"country": "中国",
"location": "湖北省武汉市洪山区珞狮路122号"
},
"normalized_name": "WUHAN UNIV OF TECH",
"original_address": {
"state": "湖北省",
"country": "中国",
"location": "湖北省武汉市洪山区珞狮路122号"
},
"normalized_entity_type_en": "Education"
}
] | 相关组织机构信息列表 |
id | string | 37e3e5a882bc2bfd36fbc3754171e311 | 机构ID |
logo | string | https://filecdn.shuidi.cn/img/upload/images_logo/b1/50/9d/b1509dfe5b2ac787dbe2d5e0753d6f00.png/0x0.png | Logo图标 |
name | string | 武汉数博科技有限责任公司 | 机构名称 |
site | string | www.qhhry.com | 站点信息 |
name_cn | string | 武汉数博科技有限责任公司 | 中文名称 |
name_en | string | Dnect | 英文名称 |
website | string | http://www.qhhry.com | 机构网站 |
state_id | string | 80cd8682-4344-3436-88b9-cfba03d34b78 | 州/省ID |
entity_id | string | 37e3e5a882bc2bfd36fbc3754171e311 | 实体ID |
country_id | string | 5a365096-b2a6-31cb-acdf-1de1f5ab3abe | 国家ID |
state_name | string | 湖北省 | 州/省名称 |
entity_type | string | Company | 实体类型 |
country_name | string | 中国 | 国家名称 |
display_name | string | 武汉数博科技有限责任公司 | 显示名称 |
founded_date | integer<int32> | 20160722 | 成立日期 |
normalized_id | string | 8adef1df2dc299c10291a4a610a69068 | 标准化ID |
normalized_logo | string | https://filecdn.shuidi.cn/img/upload/images_logo/c7/0c/34/c70c34f6c211298e8d563c49df7706f4.png/0x0.png | 标准化Logo |
normalized_name | string | 武汉数博科技有限责任公司 | 标准化机构名称 |
normalized_display_name | string | Chang'an University | 标准化显示名称 |
normalized_entity_type_en | string | Company | 标准化实体类型(英文) |
solution_id | string | 83d60b08-83e9-4d17-9b57-955290e53b1e | 解决方案的唯一标识符 |
solution_type | string | PATENT | 解决方案类型,如PATENT(专利)或PAPER(论文) |
sys_title | string | 通过传感器微型化与集成优化增强腹腔镜对细微力变化的感知能力 | 系统生成的标题 |
innovation | integer<int32> | 1 | 创新等级,数值越高表示创新程度越高 |
route_name | string | 通过传感器微型化与集成优化增强腹腔镜对细微力变化的感知能力 | 路由名称,父节点的标题 |
sys_content | string | 基于<strong>压电薄膜传感技术</strong>,设计一种集成于腹腔镜前端的力反馈系统。采用PVDF压电薄膜传感器(厚度仅8μm,有效体积18×100×580μm³),通过电荷放大器将微弱力信号转化为电压信号,实现0.01N级别高精度力检测。传感器采用柔性印刷电路(FPC)技术制造,确保在湿润环境中稳定工作。信号经四阶Butterworth低通滤波器处理后,通过16位模数转换器数字化,实现<10ms的响应时间。系统在腹腔镜前端形成一个不超过2mm厚的感应层,能够精确检测0.01-5N范围内的接触力,并通过无线传输模块将力信息实时反馈至操作手柄,帮助医生精确感知组织接触力度,提高手术安全性。 | 系统生成的内容,包含技术方案的详细描述 |
improvements | array | [
"本发明的力反馈机构能够更加直观、精准地模拟手术过程,提高训练者的训练效果,同时结构简单、操作便利,生产成本低。<mind-ref-tip data-node-id=\"7a465947259619d0314c588fc93b87c1\" data-ref-id=\"81e454d3-c795-4c81-8dae-d4a509fb8618\" >1</mind-ref-tip>",
"仿真练习器械通过力反馈装置获取旋转角度和直线位移参数,克服机械结构限制,提高手术训练效果。<mind-ref-tip data-node-id=\"7a465947259619d0314c588fc93b87c1\" data-ref-id=\"be9143a0-ae7c-40ce-90ca-4bebcb861d29\" >2</mind-ref-tip>"
] | 改进建议列表,包含对方案的改进建议 |
tech_version | string | 2 | 技术版本号 |
sys_sub_content | string | 【核心矛盾】在腹腔镜有限空间内集成高精度力反馈系统,既要保证力反馈精度和实时性,又不能显著增加器械重量和体积 | 系统子内容,补充描述核心矛盾等信息 |
size | object | {
"width": 300,
"height": 64
} | 节点的宽度和高度 |
width | integer<int32> | 300 | 节点的宽度(像素) |
height | integer<int32> | 64 | 节点的高度(像素) |
view | string | vue-shape-view | 视图类型,定义节点的渲染方式 |
shape | string | idea-node | 节点形状类型,如idea-node、solution-node、default-edge等 |
source | object | {
"cell": "b72668368698fc1e332c74f62e31caa5"
} | 连接线的源节点信息 |
cell必填 | string | 0f26fa4e9305ef86db199ba4d116f233 | 引用的节点唯一标识符 |
target | object | {
"cell": "b72668368698fc1e332c74f62e31caa5"
} | 连接线的目标节点信息 |
z_index | integer<int32> | 1000 | 节点在Z轴上的层级索引 |
position | object | {
"x": 0,
"y": 132
} | 节点在画布上的位置坐标 |
x | integer<int32> | 370 | 节点在画布上的X坐标 |
y | integer<int32> | 132 | 节点在画布上的Y坐标 |
title必填 | string | 如何在腹腔镜中安装模拟内脏力反馈的装置 | 思维导图标题,描述问题或主题 |
status必填 | boolean | false | 状态 |
error_msg | string | The request parameter format is incorrect! | 错误信息 |
error_code必填 | integer | 0 | 错误代码 |
成功响应示例
成功调用 API 的响应示例
JSON
{
"data": {
"status": "SUCCEED",
"solution": {
"cells": [
{
"id": "0f26fa4e9305ef86db199ba4d116f233",
"data": {
"initd": true,
"order": 1,
"status": "success",
"node_id": "4e2660fb9e04166b28b835c4d46c5bd1",
"route_id": "4e2660fb9e04166b28b835c4d46c5bd1",
"reference": [
{
"pn": "CN116026514A",
"apd": "29 Mar 2023",
"pbd": "2019-08-12",
"title": "Surgical clamp-oriented six-dimensional force sensor and nonlinear decoupling and fault-tolerant method",
"content": "By combining the elastic deformation module and fiber grating in the laparoscopic surgical clamp, and using the extreme learning machine model and the seagull algorithm, high-precision six-dimensional force and torque detection is achieved, which solves the problem of poor biocompatibility and vulnerability of sensors in the existing technology. The problem of electromagnetic interference improves the success rate and safety of surgery.",
"org_info": [
{
"id": "37e3e5a882bc2bfd36fbc3754171e311",
"logo": "https://filecdn.shuidi.cn/img/upload/images_logo/b1/50/9d/b1509dfe5b2ac787dbe2d5e0753d6f00.png/0x0.png",
"name": "武汉数博科技有限责任公司",
"site": "www.qhhry.com",
"name_cn": "武汉数博科技有限责任公司",
"name_en": "Dnect",
"website": "http://www.qhhry.com",
"state_id": "80cd8682-4344-3436-88b9-cfba03d34b78",
"entity_id": "37e3e5a882bc2bfd36fbc3754171e311",
"country_id": "5a365096-b2a6-31cb-acdf-1de1f5ab3abe",
"state_name": "湖北省",
"entity_type": "Company",
"country_name": "中国",
"display_name": "武汉数博科技有限责任公司",
"founded_date": 20160722,
"normalized_id": "8adef1df2dc299c10291a4a610a69068",
"normalized_logo": "https://filecdn.shuidi.cn/img/upload/images_logo/c7/0c/34/c70c34f6c211298e8d563c49df7706f4.png/0x0.png",
"normalized_name": "武汉数博科技有限责任公司",
"normalized_display_name": "Chang'an University",
"normalized_entity_type_en": "Company"
}
],
"solution_id": "83d60b08-83e9-4d17-9b57-955290e53b1e",
"solution_type": "PATENT"
}
],
"sys_title": "通过传感器微型化与集成优化增强腹腔镜对细微力变化的感知能力",
"innovation": 1,
"route_name": "通过传感器微型化与集成优化增强腹腔镜对细微力变化的感知能力",
"sys_content": "基于<strong>压电薄膜传感技术</strong>,设计一种集成于腹腔镜前端的力反馈系统。采用PVDF压电薄膜传感器(厚度仅8μm,有效体积18×100×580μm³),通过电荷放大器将微弱力信号转化为电压信号,实现0.01N级别高精度力检测。传感器采用柔性印刷电路(FPC)技术制造,确保在湿润环境中稳定工作。信号经四阶Butterworth低通滤波器处理后,通过16位模数转换器数字化,实现<10ms的响应时间。系统在腹腔镜前端形成一个不超过2mm厚的感应层,能够精确检测0.01-5N范围内的接触力,并通过无线传输模块将力信息实时反馈至操作手柄,帮助医生精确感知组织接触力度,提高手术安全性。",
"improvements": [
"本发明的力反馈机构能够更加直观、精准地模拟手术过程,提高训练者的训练效果,同时结构简单、操作便利,生产成本低。<mind-ref-tip data-node-id=\"7a465947259619d0314c588fc93b87c1\" data-ref-id=\"81e454d3-c795-4c81-8dae-d4a509fb8618\" >1</mind-ref-tip>",
"仿真练习器械通过力反馈装置获取旋转角度和直线位移参数,克服机械结构限制,提高手术训练效果。<mind-ref-tip data-node-id=\"7a465947259619d0314c588fc93b87c1\" data-ref-id=\"be9143a0-ae7c-40ce-90ca-4bebcb861d29\" >2</mind-ref-tip>"
],
"tech_version": 2,
"sys_sub_content": "【核心矛盾】在腹腔镜有限空间内集成高精度力反馈系统,既要保证力反馈精度和实时性,又不能显著增加器械重量和体积"
},
"size": {
"width": 300,
"height": 64
},
"view": "vue-shape-view",
"shape": "idea-node",
"source": {
"cell": "0f26fa4e9305ef86db199ba4d116f233"
},
"target": {
"cell": "0f26fa4e9305ef86db199ba4d116f233"
},
"z_index": 1000,
"position": {
"x": 370,
"y": 132
}
}
],
"title": "如何在腹腔镜中安装模拟内脏力反馈的装置"
}
},
"status": true,
"error_code": 0
}错误码
此接口可能返回的错误码列表
业务错误码
| 错误码 | 描述 |
|---|---|
68300004 | 请求参数异常! |
68300005 | 查询Api失败! |
68300006 | 解析基本存取错误! |
68300007 | 存在错误的请求! |
68300008 | 服务中断异常,请稍后再试! |
68300010 | 文件不符合上传规范! |
平台错误码
| 错误码 | 描述 |
|---|---|
67200000 | API整体限流错误! |
67200001 | API整体限流错误! |
67200002 | 当前调用速率过快,超过当前配置限制QPS! |
67200003 | 申请token的key和secret传参不正确或者客户端已被禁用! |
67200004 | 请求的接口无权限请联系我们的支持人员! |
67200005 | 账户余额/调用次数不足! |
67200006 | 客户端超过开通有效期! |
67200007 | 当前调用超过当天配置使用额度! |
67200008 | 请检查query参数中必填的apikey是否传输! |
67200009 | apikey与所传的bearerToken不匹配,请检查是否使用在有效期内的token! |
67200012 | 请求不合法! |
67200100 | 当前服务器状态正忙,请求响应超时! |
67200101 | 当前请求的Api不存在请检查请求Path! |
HTTP 状态码
| 状态码 | 描述 |
|---|---|
0 | 请求成功 |
201 | Created |
401 | Unauthorized |
403 | Forbidden |
404 | Not Found |
性能指标
此接口的预期性能特征
正常响应时间
5000 ms
最大响应时间
10000 ms