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工程工具 · 吸附与化学品

离子交换初步选型与 CEDI 代理计算

保留离子交换树脂初步选型与再生化学计算,同时估算 CEDI 总离子负荷/电流;不对模块和整流器进行选型。

状态
实时工程工具
模式
树脂 / 连续电去离子
工况
软化 / 除盐
单位
公制 / 英制
ATLAS WTS · Process Engineering

Ion Exchange Preliminary Sizing & CEDI Proxy

Preserve preliminary ion-exchange resin sizing and regeneration chemistry while providing a Faraday-based CEDI ionic-load/current proxy. CEDI module count, rectifier selection, and stack topology are not modeled.

Cloud Engine
Project Information
Service Configuration

Enter as mg/L expressed as CaCO3 (standard "as CaCO3" convention).

Cylindrical service vessel diameter — used to check bed depth and empty-bed linear velocity below.

Regeneration

Standard commercial softener brine is typically 8-10%.

Resin & Regeneration Results
Resin Volume Required
—m³
Total Throughput per Cycle
—m³
Before breakthrough / next regeneration
Regenerant Mass (NaCl)
—kg
Pure (100%) chemical basis
Required Dilution Water
—L
To make up brine at set concentration
Resin Bed Depth
—m
Vessel cross-section: — m²
Linear (Empty-Bed) Velocity
—m/h
Design Flow ÷ Vessel Cross-Section Area
Design Notes & Warnings
Feed Water

From a water analysis anion-sum (as CaCO3) — drives the chemical-equivalent FCE below alongside CO2 and silica.

Electrical & Process Assumptions

Planning assumption only; real stack resistance is manufacturer-specific. Module count, module envelope, rectifier, and topology are not modeled.

CEDI Electrical Proxy — Not Module Selection
PRELIMINARY PROXY ONLY — Faraday current represents aggregate ionic load. Voltage and efficiency are planning assumptions; module count, rectifier selection, stack topology, and manufacturer capacity remain outside this tool.
Feed Conductivity Equivalent (FCE)
—µS/cm
Cond. + 2.79×CO₂ + 1.94×SiO₂
Feed Concentration Equivalent (FCE as CaCO3)
—mg/L
TEA + 1.14×CO₂ + 1.67×SiO₂
Feed Flow Required
—m³/h
—
DC Current Proxy (Actual)
—A
Theoretical (100% eff.): — A
Estimated DC Power Proxy
—kW
Specific energy: — kWh/m³
Design Notes & Warnings

Export includes both panels' current configuration and results; CEDI output is explicitly a proxy, not module or rectifier selection.

此工程工具目前仅提供英文版本。

01

工程依据

方法

树脂装填体积由总离子负荷(流量 x 运行时间 x 进水浓度)除以工作交换容量得出,再生药耗与交换容量的关系基于标准凝胶型强酸性阳离子软化树脂的公开参考曲线;除盐用途(阳床/阴床)由于 H+/OH- 再生的公开曲线数据较少,采用手册典型值作为静态默认值。

直流电流严格依据法拉第定律,基于进水离子负荷(进水等效电导率 FCE,已对 CO2 与二氧化硅进行修正)与可调节的电流效率假设推算;电压为用户可调的规划假设值,取值范围参考已发表的 250-600 V DC 典型模块范围——真实膜堆电阻取决于厂家专有的树脂填充/膜材构造,因此功耗与单位能耗仅为预算级估算。

假设

  • 树脂初步选型使用通用容量和容器假设。
  • CEDI 电流采用基于法拉第定律的综合离子负荷代理值,并使用可编辑的规划电压和电流效率假设。

范围 / 限制

  • 设计发布前应核实树脂、水力条件、再生方案和制造商数据。
  • 模块数量、整流器选型、堆栈拓扑、专有容量及最终供应商设计均不在模型范围内。
02

工程路径

应用

场景

工作流

  • 高纯水 从进水预处理,经 RO、深度抛光、离子交换或 CEDI、最终质量控制到分配系统的高纯水路径。
    阶段 04 — Ion Exchange or CEDI返回阶段 04