The engineering discipline

The work behind every weld we let leave the floor.

An orbital welding system is a process instrument. We treat it as one - calibrated, burned in, validated, and shipped with a parameter library that carries a senior engineer's judgment. Here's what that means in detail.

01 / Pre-delivery inspection

5-point pre-delivery inspection protocol: from component screening to sample-weld validation.

->Step 01

Component screening

Electrical consistency checks on every core PCB before the unit is assembled. Pulse-control boards, AVC modules, motor drivers, and gas-flow sensors are bench-tested against tolerance limits set in the original R&D validation.

LoggedPCB serial, tolerance band, technician ID, timestamp.
->Step 02

Mechanical calibration

Weld head rotation accuracy measured against a calibrated reference. Gear-train backlash, AVC drive linearity, and concentricity all logged per unit. Out-of-spec units return to assembly.

LoggedRotation deviation, AVC linearity ratio, head serial.
->Step 03

Burn-in stress test

48 to 72 hours of continuous operation under simulated load. Catches early-life component failure before the unit reaches a customer floor. Temperature, current, and pulse stability are monitored throughout.

LoggedDuration, peak temperature, pulse stability, faults.
->Step 04

Gas-tight leak test

Shielding-gas integrity check on weld head chambers. Helium-grade leak detection where applicable. Any leakage at 0.5 bar above ambient sends the head back to assembly.

LoggedTest pressure, leak rate, inspector ID.
->Step 05

Sample weld validation

An actual orbital weld on representative tubing. Visual + dye-penetrant inspection of the inner bead. The sample weld coupon ships with the unit so the customer can verify against their own reference.

LoggedProgram used, voltage / current / gas profile, coupon photo.
02 / The program library

200+ orbital welding programs: indexed by material, OD, wall thickness, position, and shielding gas.

Every FYID power source ships with 200+ welding programs. Each program is a complete parameter set - peak current, base current, pulse frequency, travel speed, ramp profile, gas flow, post-purge - validated by our process team against a known material / geometry combination.

The library is indexed by six variables. When your operator picks a program, they're not guessing the parameters - they're inheriting the parameter decisions a senior process engineer already made. The library updates over the system's life; new validated entries ship as firmware.

Indexed by
Material
316L / 304 / 304L / Titanium / Inconel 625 / Chrome-moly
OD range
3.175 mm - 168 mm
Wall thickness
0.5 mm - 5.0 mm
Position
1G / 2G / 5G / 6G
Shielding gas
Argon / Ar/He blends / Ar/H / for stainless
Joint type
Butt / Socket / Tube-to-tubesheet
03 / Traceable weld data

Per-joint orbital weld traceability: joint ID, program, operator, parameters, and inspection status.

The data logger is not an accessory. It is in the power source. FXT20 supports built-in printing and USB function per KB; project records are typically organized around joint ID, program ID, operator, timestamp, key welding parameters, and QC status.

The sample below is a traceability-field example for WFI / UHP projects. It is not a fixed report format for every customer; final fields should follow the customer WPS, inspection plan, and audit requirements.

joint_id : WFI-2847
timestamp : 2026-06-12T14:22:08+08
operator : OP-2104
program : P-316L-50.8x1.65-2G-AR-12
material : SS 316L, electropolished
OD x wall : 50.8 x 1.65 mm
position : 2G horizontal fixed
shield gas : Argon 99.999%, 15 L/min
peak current : 84 A (target 84 +/- 2)
base current : 32 A (target 32 +/- 1)
pulse freq : 2.5 Hz
travel speed : 90 mm/min
arc time : 122 s
post-purge : 30 s
inspection note : visual / borescope / NDE result by project
status : PASS / HOLD / REWORK by QC rule
04 / Certificates and project standards

CE EN 60974-1 certification and ASME BPE / SEMI F20 / EHEDG project standard support.

CE
Standard EN 60974-1:2012
Certificate M.2025.206.C125225
Scope EU safety & health requirements for arc welding equipment
Issued 2025
ASME BPE-type projects
Nature Project/process requirement, not an equipment certificate
Scope Bioprocess equipment, sanitary piping
Support WPS/PQR documentation, per-joint records, sample weld review
Use Pharma, food, beverage
SEMI F20-type projects
Nature Project/process requirement, not an equipment certificate
Scope UHP gas distribution, semiconductor cleanrooms
Support Inner-bead oxidation control and clean construction records
Use Fab construction, retrofit
EHEDG / 3-A-type projects
Nature Project/process requirement, not an equipment certificate
Scope Hygienic equipment design
Support Surface finish and cleanability-related process documentation
Use Dairy, food, beverage
05 / Research & development
"We don't build features. We close failure modes - one validated program at a time, one logged joint at a time, one shipped unit at a time."
- FYID Engineering team, 2026 product principles
06 / What the numbers look like

FYID-Feiyide orbital welding systems: production quality metrics and global deployment scale.

200+
Welding programs in library
72 h
Continuous burn-in per shipped unit
5
Pre-delivery inspection gates
100%
Per-joint data logging when configured
工程规范

每道离厂焊缝背后的工作。

轨道焊接系统是一台工艺仪器,我们也如此对待它——经过校准、烧机、验证,并随附一份承载资深工程师判断的参数库出厂。以下是详细说明。

01 / 出厂前检验

5步出厂前检验规程:从元器件筛选到样品焊接验证。

->步骤 01

元器件筛选

装机前对每块核心PCB进行电气一致性检查。脉冲控制板、弧压控制(AVC)模块、电机驱动器与气体流量传感器均按原始研发验证中设定的公差限值进行台架测试。

记录项目PCB序列号、公差带、技术员ID、时间戳。
->步骤 02

机械校准

焊头旋转精度与校准基准对比测量。齿轮传动反向间隙、弧压控制(AVC)驱动线性度与同心度均按设备序列号记录。不合格设备退回装配返工。

记录项目旋转偏差、AVC线性度比值、焊头序列号。
->步骤 03

烧机压力测试

在模拟负载下连续运行48至72小时。在设备到达客户现场前提前发现早期元器件失效。全程监测温度、电流与脉冲稳定性。

记录项目持续时长、峰值温度、脉冲稳定性、故障记录。
->步骤 04

气密泄漏测试

焊头腔体保护气体完整性检查。适用情况下采用氦气级泄漏检测。在环境压力基础上超压0.5 bar时任何泄漏均导致焊头退回装配返修。

记录项目测试压力、泄漏率、检验员ID。
->步骤 05

样品焊接验证

在代表性管材上实施真实轨道焊接。对内焊道进行目视检查及渗透探伤。样品焊接试样随设备一并发货,客户可与自身参考标准对比验证。

记录项目所用程序、电压/电流/气体曲线、试样照片。
02 / 程序参数库

200余条轨道焊接程序:按材料、外径、壁厚、位置及保护气体分类索引。

每台FYID电源出厂随附200余条焊接程序。每条程序是完整的参数集——峰值电流、基值电流、脉冲频率、行走速度、电流坡度、气体流量、后吹气时间——均由我们的工艺团队针对已知材料/几何组合完成验证。

参数库按六个变量索引。操作员选定程序时,并非在猜测参数——而是继承了资深工艺工程师已经做出的参数决策。参数库随设备生命周期持续更新;新验证条目以固件形式发布。

索引变量
材料
316L / 304 / 304L / 钛 / Inconel 625 / 铬钼钢
外径范围
3.175 mm - 168 mm
壁厚
0.5 mm - 5.0 mm
焊接位置
1G / 2G / 5G / 6G
保护气体
氩气 / Ar/He混合 / Ar/H(不锈钢)
接头类型
对接 / 承插 / 管板焊接
03 / 可追溯焊接数据

逐焊点轨道焊接可追溯性:焊点ID、程序、操作员、参数与检验状态。

数据记录仪不是附件,而是内置于电源中。FXT20支持内置打印与USB功能;项目记录通常围绕焊点ID、程序ID、操作员、时间戳、关键焊接参数和质控状态进行组织。

以下示例为WFI / UHP项目的可追溯字段样例,并非适用于每位客户的固定报告格式;最终字段应遵循客户WPS、检验计划与审计要求。

joint_id : WFI-2847
timestamp : 2026-06-12T14:22:08+08
operator : OP-2104
program : P-316L-50.8x1.65-2G-AR-12
material : SS 316L, electropolished
OD x wall : 50.8 x 1.65 mm
position : 2G horizontal fixed
shield gas : Argon 99.999%, 15 L/min
peak current : 84 A (target 84 +/- 2)
base current : 32 A (target 32 +/- 1)
pulse freq : 2.5 Hz
travel speed : 90 mm/min
arc time : 122 s
post-purge : 30 s
inspection note : visual / borescope / NDE result by project
status : PASS / HOLD / REWORK by QC rule
04 / 认证与项目标准

CE EN 60974-1认证及ASME BPE / SEMI F20 / EHEDG项目标准支持。

CE
标准 EN 60974-1:2012
证书 M.2025.206.C125225
范围 弧焊设备欧盟安全与健康要求
颁发年份 2025
ASME BPE型项目
性质 项目/工艺要求,非设备证书
范围 生物工艺设备、卫生级管道
支持 WPS/PQR文件、逐焊点记录、样品焊接评审
应用 制药、食品、饮料
SEMI F20型项目
性质 项目/工艺要求,非设备证书
范围 超高纯气体配送、半导体洁净室
支持 内焊道氧化控制与洁净施工记录
应用 晶圆厂建造、改造
EHEDG / 3-A型项目
性质 项目/工艺要求,非设备证书
范围 卫生设备设计
支持 表面粗糙度与可清洁性相关工艺文件
应用 乳制品、食品、饮料
05 / 研究与开发
"我们不做功能堆砌,我们消除失效模式——一条经验证的程序、一个已记录的焊点、一台已发货的设备,逐步推进。"
- FYID工程团队,2026年产品原则
06 / 数字说明

FYID-Feiyide轨道焊接系统:生产质量指标与全球部署规模。

200+
参数库焊接程序数量
72 小时
每台出货设备连续烧机时长
5
出厂前检验关卡数量
100%
已配置情况下逐焊点数据记录率