Dual-Loop Monitoring✦ TCS + FWS — One Platform✦ IsoFLOW Probe™ — US Patent 12,007,314 B1✦ Koios® AI — Built In✦ Real-Time Coolant Intelligence✦ Factory Acceptance Tested✦ BMS Ready — Modbus · EtherNet/IP · OPC UA✦ 0.001 FNU Turbidity Resolution✦ Zero Coolant Loss✦ Dual-Loop Monitoring✦ TCS + FWS — One Platform✦ IsoFLOW Probe™ — US Patent 12,007,314 B1✦ Koios® AI — Built In✦ Real-Time Coolant Intelligence✦ Factory Acceptance Tested✦ BMS Ready — Modbus · EtherNet/IP · OPC UA✦ 0.001 FNU Turbidity Resolution✦ Zero Coolant Loss✦
Chemtec Mission Critical · US Patent 12,007,314 B1

If You Can't See
Your Coolant Chemistry,
You Don't Control
Your Cooling Loop.

Coolant iQ™ delivers real-time continuous chemistry monitoring across both your Technical Cooling System and Facility Water System — simultaneously. On one patented platform, with one AI layer.

See How It Works Request a Demo
Chemtec Coolant iQ System — Full Dual Installation with MiniBLOCK Dosing
IsoFLOW Probe™ — Zero coolant loss
Koios® AI — Built in from day one
BMS Ready — Modbus · OPC UA
0%
of data center outages traced to cooling-related failures
Uptime Institute Annual Outage Analysis 2024
0/7
Continuous monitoring — replacing quarterly grab samples
$0
Annual exposure at 10 MW — 6 FMEA chronic failure modes
PUE-weighted FMEA · $0.09/kWh
0×
Better turbidity resolution than industry standard 1 FNU floor
E+H CUS52D · ISO 15839 · 0.001 FNU Elite
Return on investment

Six Failure Modes.
All Invisible to Standard Instrumentation.

PUE-weighted Failure Modes and Effects Analysis across a 10 MW data hall at $0.09/kWh. Every one of these failure modes is detectable — and recoverable — with continuous chemistry monitoring.

♨️
$236k–$631k/yr
HX Fouling / Scaling
ΔPUE 0.03–0.08. Heat exchanger fouling is the highest-value chronic efficiency loss in the dual-loop architecture. Detected via FWS conductivity and pH trending.
→ FULL ANALYSIS
📡
$158k–$473k/yr
Sensor Drift
ΔPUE 0.02–0.06. A drifted sensor reports plausible but incorrect data. E+H Heartbeat Technology + Koios Capability 3 eliminates this failure mode entirely.
→ FULL ANALYSIS
🔲
$158k–$473k/yr
Cold Plate Fouling
ΔPUE 0.02–0.06. Particulate in GPU microchannels. 0.001 FNU turbidity detection catches accumulation before GPU thermal throttling begins.
→ FULL ANALYSIS
🌊
$158k–$394k/yr
Flow Imbalance
ΔPUE 0.02–0.05. Chemistry-driven viscosity changes alter flow resistance. The CDU hydraulic model becomes invalid — caught through conductivity and concentration trending.
→ FULL ANALYSIS
🦠
$79k–$394k/yr
Biofouling
ΔPUE 0.01–0.05. ORP monitoring in the FWS loop detects biocide residual loss and biological growth before macroscopic fouling develops.
→ FULL ANALYSIS
⚙️
$79k–$236k/yr
Pump Efficiency Loss
ΔPUE 0.01–0.03. Corrosion-driven impeller degradation. pH + turbidity cross-correlation identifies corrosion onset before mechanical failure.
→ FULL ANALYSIS
Customer-Rebuildable ROI Formula
Annual $ waste ≈ ΔPUE × IT_kW × 8,760 hrs/yr × $/kWh
Example: ΔPUE 0.05 × 10,000 kW × 8,760 × $0.09 = $394,200 / year
Aggregate exposure at a 10 MW data hall at $0.09/kWh: $0.9M–$2.6M per year across all six FMEA chronic failure modes. All six are invisible to pressure, flow, and temperature instrumentation alone. Site-specific analysis available — contact Chemtec with your IT load, $/kWh, and cooling architecture.
The silent degrader thesis

Your cooling loop is degrading.
Right now. Invisibly.

Pressure, flow, and temperature sensors cannot detect slow chemistry-driven degradation. By the time a traditional alarm fires, the damage is already costing you.

Day 1
System commissioned. Clean and efficient.
PG25 at correct concentration. pH balanced. Turbidity clear. Cold plates at spec. PUE on target.
0.001 FNU
Day 60
Inhibitor depletion begins. pH drift starts.
Corrosion by-products enter the TCS loop. Turbidity creeps up. Flow sensors show nothing unusual. No alarm raised.
0.08 FNU
Day 120
Biofilm forms in FWS loop. HX fouling starts.
Biological growth in the facility water loop. Heat exchanger efficiency drops 4%. Pumps working harder. Power cost rising — invisibly.
0.35 FNU
Day 180
Cold plate microchannels partially blocked.
Particulate in GPU cold plates. GPU junction temps rise. System degraded — and nobody noticed it happening.
1.2 FNU
♨️
HX Fouling
Scale and fouling on heat exchanger surfaces reduces thermal efficiency — undetectable by pressure or temperature sensors until significant damage occurs.
→ VIEW ANALYSIS
🦠
Biofouling
Biological growth in the FWS loop changes viscosity and insulates heat transfer surfaces. ORP is the only real-time indicator of biocide residual.
→ VIEW ANALYSIS
🔲
Cold Plate Fouling
GPU cold plate microchannels are ≤10 microns wide. Particulate load below 1 FNU — invisible to standard sensors — accumulates and throttles GPUs.
→ VIEW ANALYSIS
⚗️
Inhibitor Depletion
Corrosion inhibitors break down over time. pH drift accelerates galvanic attack on copper cold plates and aluminium CDU components without triggering any alarm.
→ VIEW ANALYSIS
0%
of data center outages are traced to
cooling-related failure modes
Uptime Institute Annual Outage Analysis 2024 · Click for citation
Dual-loop architecture

Multiple Loops. One Intelligent System.

The Chemtec Coolant iQ™ system is capable of real time monitoring across all the cooling loops of the modern AI data center — TCS, FWS, and CWS — giving you end to end fluid chemistry visibility from the cold plate to the cooling tower.

AI Data Center Liquid Cooling Architecture — Dual Loop
① TCS — Technical Cooling System
Direct-to-chip closed loop. Fluid: PG25 / DI water. Monitors turbidity, pH, conductivity, and glycol concentration. Protects GPU cold plates and CDU components from chemistry-driven degradation.
② FWS — Facility Water System
Intermediate heat transfer loop. Fluid: treated water. Monitors turbidity, pH, conductivity, and ORP. Detects biofouling, scaling, and corrosion in the facility-side infrastructure.
The solution

Dual-Loop Monitoring.
Smarter Cooling. Optimized Performance.

Coolant iQ™ delivers a continuous, real-time chemical fingerprint of both cooling loops simultaneously — the live data layer that makes your thermal infrastructure predictable, defensible, and optimized.

Coolant iQ — The Solution: Dual Loop Monitoring with Koios AI
Koios® AI layer — Elite tier

Advisory Intelligence.
Built In From Day One.

Koios® AI ships productized inside every Elite skid — not added later, not a cloud subscription. One instance supports up to four Coolant iQ loops simultaneously.

01
Predictive Coolant Quality Forecasting
Anticipates chemistry drift before excursions occur in either loop. Identifies the trajectory of degradation hours or days in advance — enabling corrective action before damage occurs.
02
Multi-Parameter Contamination & Anomaly Detection
Cross-loop correlation invisible to single-sensor systems. When turbidity, ORP, pH, and conductivity from TCS and FWS are correlated simultaneously, contamination events become unambiguous.
03
Sensor Health & Data Integrity Monitoring
Flags unreliable readings before false alarms or bad dosing decisions. Works with E+H Heartbeat Technology to provide the most comprehensive sensor validation on any inline monitoring platform.
Technical specifications
HardwareOnLogic Karbon K410
Industrial edge PC
ProtocolsOPC UA · EtherNet/IP
Modbus TCP
Loops supportedUp to 4 per instance
DeploymentFactory integrated
Live at commissioning
Annual service (Yr 2+)AI Optimization &
Lifecycle Services
Advisory / supervisory only. Koios does not actuate valves, modulate pumps, or override existing control logic or operator overrides. Existing control systems remain fully unchanged.
Connectivity
OPC UA
EtherNet/IP
Modbus TCP
PROFINET
4–20 mA
NAMUR NE107
The physical system

Pre-Engineered.
Factory Tested. Field Ready.

Every Coolant iQ unit completes full Level 3 factory acceptance testing at Chemtec's Willis, TX facility before shipping. Electrical and physical functional verification. FAT report included.

Full Coolant iQ system with optional MiniBLOCK dosing skid and dual monitoring units
IsoFLOW Probe™ — 316L stainless steel, single penetration
IsoFLOW Probe™ — cutaway showing internal isokinetic flow path
MiniBLOCK™ Dosing — Optional
IsoFLOW Probe™ — Patented
Instrument-Agnostic by Design
CORE (Pyxis IK-1500A), ADVANCED (Pyxis IK-1600), or ELITE (E+H Liquiline CM444 + Memosens) — right-sized for every application. Configure each loop independently based on criticality.
Turnkey — Design Through Commissioning
In-house Autodesk Inventor 3D CAD modeling. Virtual fit, form, and operability testing before fabrication begins. Chemtec field commissioning representative on-site at startup.
BMS Integration on Day One
Modbus TCP, EtherNet/IP, OPC UA, PROFINET, and 4–20 mA — standard. Coolant iQ chemistry data appears alongside your existing temperature, flow, and pressure points from commissioning.
MiniBLOCK™ Dosing Integration
Optional MiniBLOCK™ metered dosing companion — biocide, corrosion inhibitor, pH neutralizer, anti-static. Dosing driven by Coolant iQ data, not a calendar schedule.
IsoFLOW Probe™ — US Patent 12,007,314 B1

One Penetration.
Zero Coolant Loss.

The patented sampling mechanism at the heart of every Coolant iQ installation. A single hot-tap into the mainline — no pumps, no external pressure source, no process interruption, ever.

IsoFLOW Probe — full render, 316L stainless steel
IsoFLOW Probe — cutaway cross-section showing internal flow path
IsoFLOW Micro — compact inline version with Parker fittings
Pipe sizes
¾" to 48" mainline
Max working pressure
1,480 PSI
Temperature range
−15°C to +80°C
Material
316L Stainless Steel
Moving parts
None
Penetrations required
One (extraction + return)
Isokinetic extraction per API Section 8.2 — sample velocity matches mainline velocity for a representative, non-biased sample at any flow rate.
Passive return — the sample is drawn and returned by the mainline pressure differential alone. No pump, no compressor, no external pressure device required.
Hot-serviceable — isolation valves integral to assembly allow instruments to be removed, calibrated, and replaced while the primary loop remains online. Zero process interruption.
Sizes A through D — 2" to 48" mainline pipe. Same penetration serves both extraction and return. Compatible with all schedule piping and flange standards.
Measurement precision

Lab-Grade Instruments.
Inline. Continuous.

Four continuous chemistry parameters per loop — each one chosen because it detects a specific failure mode that pressure, flow, and temperature sensors cannot see. Every parameter. Every loop. Every minute.

Coolant iQ Elite — E+H Liquiline CM444 with Memosens turbidity sensor
Parameter 01
Turbidity
0.001 FNU

GPU cold plate microchannels are ≤10 microns wide. Standard industry turbidity sensors floor out at 1 FNU — the level at which a sample visibly clouds. By then, particulate has already been accumulating in microchannels for weeks. Coolant iQ Elite detects contamination at 0.001 FNU — 1,000× earlier — in the range where particulate is building but invisible to every other instrument on site.

✓E+H Turbimax CUS52D · ISO 15839 formazine calibration · 0–10 FNU range
✓Continuous inline — not a lab sample. Not quarterly. Every minute, every day.
✓Koios AI trends the accumulation rate — triggering action before GPU throttling begins
Parameter 02
pH
0–14 · Continuous

pH excursion is the upstream cause of most corrosion events in liquid cooling loops. When corrosion inhibitors in PG25 coolant deplete below their protective threshold, pH drifts — and galvanic attack begins on copper cold plates and aluminium CDU components without triggering a single BMS alarm. By the time a pressure sensor responds, the damage is done.

✓E+H Memosens digital glass sensor — digital protocol eliminates signal interference
✓Heartbeat Technology — continuous in-process sensor verification without loop shutdown
✓Monitors both TCS and FWS loops — each with loop-appropriate target setpoints
Coolant iQ with pH and conductivity sensor array — E+H Memosens configuration
Parameter 03
Conductivity
0–2000 mS/cm · Continuous

The first indicator of a fluid contamination event in either loop. Tracks tramp fluid ingress, chemical dilution, corrosion inhibitor depletion, and total dissolved solids drift — continuously, without lab intervention. In the FWS loop, rising conductivity correlates with scaling tendency; in the TCS loop it tracks coolant integrity.

→ CLICK FOR TECHNICAL DETAIL
Parameter 04
Concentration / ORP
TCS: Glycol · FWS: Biocide Residual

Two different instruments, one measurement slot. TCS loop: KXS DCM-20 inline digital refractometer with automatic temperature compensation — continuous glycol concentration, not quarterly checks. FWS loop: ORP probe — real-time biocide residual confirmation. ORP dropping signals biological risk weeks before macroscopic fouling develops or any pressure sensor responds.

→ CLICK FOR TECHNICAL DETAIL
IsoFLOW Probe full render
IsoFLOW Probe cutaway
IsoFLOW Micro inline probe
Full Coolant iQ system
IsoFLOW Probe™ · Cutaway · IsoMICRO™ · Full system with MiniBLOCK™ dosing
Monitoring deployment

Right-Sized for
Every Application.

Coolant iQ deploys where it matters most — starting with the FWS loop and scaling across every data hall TCS loop and sub-loop as required. Each monitoring location is configured with the customer-approved instrument set that best supports the chemistry monitoring and prediction requirements of that specific loop.

① FWS Loop
Facility Water System
Primary monitoring location. One Coolant iQ unit on the FWS supply and return header gives system-wide chemistry visibility across the intermediate heat transfer loop. Optional redundant unit for continuous uptime during calibration or service.
✓ Turbidity — particulate and biological load
✓ ORP — biocide residual and biofilm detection
✓ pH — scaling risk and corrosion protection
✓ Conductivity — treatment efficacy and TDS
+ Optional redundant unit for 24/7 service continuity
② TCS Loop
Technical Cooling System
Deployed at each data hall or sub-loop depending on facility architecture and customer requirements. Monitors the PG25 direct-to-chip closed loop at the mainline header — providing chemistry visibility across the full TCS circuit feeding that data hall.
✓ Turbidity — cold plate microchannel protection
✓ Glycol concentration — inline refractometry
✓ pH — inhibitor depletion and corrosion risk
✓ Conductivity — tramp fluid and contamination
+ One unit per data hall — or per sub-loop as required
③ Rack Level — Optional
IsoMICRO™ Probe
For applications requiring rack-level coolant extraction and monitoring, the IsoMICRO™ probe provides the same isokinetic sampling capability as the IsoFLOW Probe™ in a compact form factor designed for smaller pipe and manifold applications at the rack or CDU level.
✓ Same isokinetic sampling — compact form factor
✓ No pumps · No moving parts · Zero coolant loss
✓ Designed for manifold and small-bore pipe
+ Deployed where rack-level chemistry granularity is required
⚙
Instrument-Agnostic by Design
Each Coolant iQ monitoring location is configured with the instrument package that best supports the monitoring and prediction requirements of that specific loop and customer application. CORE (Pyxis IK-1500A), ADVANCED (Pyxis IK-1600), or ELITE (E+H Liquiline CM444 + Memosens) — selected per loop, not per site. Add the analyzers and devices you need. No more, no less. Just what matters.
Get started

The Operating Cost
Lives in the Fluid.

Ready to see what your loops are doing right now? Request a technical briefing, a site-specific ROI analysis, or a Coolant iQ™ product demonstration.

Back to Mission Critical
(740) 610-4950  ·  MissionCritical@ChemtecEnergy.com
Shawn Laughlin, President  ·  Andrew Mahon, VP Mission Critical
Chemtec Energy Services LLC · 11745 Cude Cemetery Road, Willis, TX 77318
FMEA CHRONIC MODE #1
Heat Exchanger Fouling / Scaling
$236k–$631k/yr

ΔPUE impact: 0.03–0.08 across a 10 MW data hall at $0.09/kWh. Scaling occurs when dissolved minerals in the facility water loop precipitate onto heat transfer surfaces as temperatures rise. Even a 0.25mm calcium carbonate deposit reduces heat transfer efficiency by 10–20%, forcing the chiller plant to work harder at greater power cost.

Coolant iQ monitors FWS conductivity and pH continuously — the two parameters that predict scaling risk before deposition begins. Koios AI correlates the trajectory and triggers a MiniBLOCK dosing event before the problem develops. Neither pressure, flow rate, nor temperature sensors detect early-stage fouling.

PUE-weighted FMEA · Math: ΔPUE × IT_kW × 8,760 × $/kWh · ASHRAE TC9.9 2024 Technical Bulletin
FMEA CHRONIC MODE #5 — FWS LOOP
Biofouling — Facility Water Loop
$79k–$394k/yr

ΔPUE impact: 0.01–0.05. Biological growth in the facility water loop changes fluid viscosity and flow resistance, reduces heat exchanger efficiency through biofilm insulation, and in open cooling tower systems creates Legionella risk.

ORP is the primary real-time indicator of biocide residual in treated water. A dropping ORP reading signals the biocide program is losing efficacy before biological growth becomes macroscopic. Coolant iQ Facility monitors ORP continuously alongside turbidity, pH, and conductivity — the four-parameter fingerprint cross-correlated by Koios surfaces biological activity weeks before quarterly lab sampling would detect it.

OCP Whitepaper — Guidelines for PG25 in Single-Phase Cold Plate Systems · ASHRAE TC9.9
FMEA CHRONIC MODE #3 — TCS LOOP
GPU Cold Plate Fouling
$158k–$473k/yr

ΔPUE impact: 0.02–0.06. GPU cold plate microchannels are typically ≤10 microns wide. Particulate contamination at this scale is invisible to pressure sensors until blockage is severe — by which point the GPU is already thermally throttled.

Coolant iQ Elite turbidity detection at 0.001 FNU (ISO 15839, formazine, ultrapure water) is 1,000× more sensitive than the industry standard 1 FNU floor. Turbidity trending — not just point-in-time measurement — allows Koios to identify the accumulation pattern and trigger a filtration or flushing event before GPU performance is affected.

E+H Turbimax CUS52D · ISO 15839 · Alliance Chemical cold plate replacement field documentation
FMEA CHRONIC MODE — TCS LOOP
Inhibitor Depletion & Corrosion
Upstream of all other failure modes

Corrosion inhibitors in PG25 coolant (azole compounds, such as benzotriazole) deplete over time. When they fall below protective threshold, galvanic attack begins on copper cold plates and aluminium CDU components — silently, without triggering any BMS alarm.

pH monitoring is the primary real-time indicator of inhibitor breakdown. Coolant iQ monitors pH continuously — pH trending downward combined with rising conductivity is the Koios cross-correlation signature of an inhibitor depletion event. MiniBLOCK dosing corrects concentration before corrosion products enter the loop.

OCP Whitepaper — PG25 Guidelines · ASHRAE TC9.9 Thermal Guidelines for Liquid Cooling
FMEA CHRONIC MODE #2
Sensor Drift — Silent Data Corruption
$158k–$473k/yr

ΔPUE impact: 0.02–0.06. A failed sensor triggers an alarm. A drifted sensor reports plausible but incorrect data — and nobody knows. Dosing decisions made on drifted data, missed contamination events, and SLA non-compliance all follow.

E+H Heartbeat Technology (Elite tier) provides continuous sensor self-verification — a pass/fail proof of sensor condition that runs while live in the process, without removing it or shutting down the loop. A traceable verification report in under one minute. Koios Capability 3 adds an AI cross-correlation layer above the hardware — detecting drift the individual sensor self-diagnostic might miss.

E+H Heartbeat Technology · NAMUR NE107 · Koios Capability 3 — Sensor Health & Data Integrity
FMEA CHRONIC MODE #4
Flow Imbalance
$158k–$394k/yr

ΔPUE impact: 0.02–0.05. Glycol concentration drift changes the viscosity and specific heat capacity of PG25 coolant, altering flow resistance throughout the TCS loop. The hydraulic model the CDU control system was commissioned to is no longer valid — yet flow sensors appear normal because volumetric flow rate may be unchanged while heat transfer capacity has decreased.

Coolant iQ monitors conductivity and glycol concentration simultaneously. When both trend together, Koios flags a concentration shift event — enabling correction before the flow balance is meaningfully affected.

PG25 fluid property data · Glycol concentration via inline refractometry · FMEA analysis
FMEA CHRONIC MODE #6
Pump Efficiency Loss
$79k–$236k/yr

ΔPUE impact: 0.01–0.03. Corrosion-driven degradation of pump impellers reduces hydraulic efficiency over time. The pump draws the same power but delivers less flow — and the BMS sees no anomaly because power consumption and VFD frequency remain within normal ranges.

pH excursions in either loop accelerate corrosion of impeller materials. Coolant iQ monitors pH continuously — pH + turbidity cross-correlation identifies the onset of corrosion-generated particle load before impeller degradation becomes mechanically significant. Early pH correction via MiniBLOCK protects pump impeller life.

pH monitoring · Turbidity cross-correlation for corrosion detection · FMEA analysis
CITATION
54% of Outages — Cooling Related
54%

The Uptime Institute Annual Outage Analysis 2024 reports that more than half of all significant data center outages — those causing downtime, data loss, SLA violations, or financial impact — are traced to cooling-related failure modes.

This figure encompasses both direct cooling failures (thermal events, CRAC/CRAH failure, chiller faults) and chemistry-driven degradation failures (fouling, scaling, corrosion, biofouling) that develop slowly and invisibly before causing acute incidents.

Coolant iQ specifically addresses the chemistry-driven degradation modes — the ones that develop over weeks and months without triggering any traditional pressure, flow, or temperature alarm.

Uptime Institute Annual Outage Analysis 2024 — uptimeinstitute.com · ASHRAE TC9.9 2024 Technical Bulletin
INSTRUMENT DETAIL — TURBIDITY
Turbidity Measurement
0.001 FNU (Elite)

Elite: Endress+Hauser Turbimax CUS52D. Measurement range 0–10 FNU. Limit of detection 0.0015 FNU in ultrapure water. Calibrated per ISO 15839 using formazine primary standard. This is the lowest turbidity detection limit available on any inline process sensor commercially.

Core / Advanced: Pyxis ST-730SS-T. Resolution 0.1 NTU. Industry-grade inline turbidity suitable for most TCS and FWS applications.

The industry standard for data center coolant grab samples is typically 1 FNU — the level at which the sample visibly clouds. Coolant iQ Elite detects contamination 1,000× earlier, in the range where particulate is accumulating in microchannels but not yet visible to the human eye.

E+H Turbimax CUS52D datasheet · ISO 15839 · Formazine calibration standard
INSTRUMENT DETAIL — pH
pH Measurement
0–14 continuous

Elite: E+H Memosens digital glass pH sensor. The Memosens protocol transmits calibration data and sensor diagnostics digitally — eliminating signal interference and enabling sensor pre-calibration in the lab before installation. Heartbeat Technology continuously validates sensor condition in-process without removal.

Core / Advanced: Pyxis ST-710SS. Analog output, 0–14 pH range, compatible with standard transmitters.

Target pH range for PG25 coolant: typically 7.5–9.5 per OCP guidelines and fluid manufacturer specification. Facility water loop target varies by system — typically 7.0–9.0. pH outside these bands triggers Koios advisory and MiniBLOCK dosing recommendation.

E+H Memosens CPS11D datasheet · OCP PG25 Guidelines · Pyxis ST-710SS datasheet
INSTRUMENT DETAIL — CONDUCTIVITY
Conductivity Measurement
0–2000 mS/cm

Elite: E+H Memosens conductivity sensor. Range 0–2000 mS/cm. Digital Memosens protocol with temperature compensation. Heartbeat self-diagnostics.

Core / Advanced: Pyxis ST-722. Standard conductivity range suitable for TCS and FWS applications.

In the TCS loop, conductivity tracks tramp fluid ingress, chemical dilution, and inhibitor depletion. In the FWS loop, conductivity tracks total dissolved solids, treatment chemical concentration, and makeup water quality. Rising conductivity in the TCS loop is a primary indicator of a glycol dilution event or contamination ingress. In the FWS loop, it tracks scaling tendency.

E+H Memosens CLS50D datasheet · Pyxis ST-722 datasheet
INSTRUMENT DETAIL — CONCENTRATION / ORP
Glycol Concentration (TCS) / ORP (FWS)
Loop-dependent

TCS Loop — Glycol Concentration: KXS DCM-20 inline digital refractometer with automatic temperature compensation. Measures 0–50% glycol concentration continuously in real time. Replaces periodic manual refractometer checks. Concentration drift changes thermal conductivity directly and must be maintained within specification for cold plate performance and freeze protection.

FWS Loop — ORP: Oxidation-Reduction Potential probe. ORP is the primary indicator of biocide residual in treated water systems. A positive ORP confirms active biocide presence; dropping ORP signals program failure before biological growth is detectable by any other means. Cross-correlated by Koios with turbidity and conductivity for biological activity confirmation.

KXS DCM-20 refractometer datasheet · ORP measurement theory · OCP PG25 Guideline
Contact us
Request a Demo or Briefing

Contact the Chemtec Mission Critical team to schedule a technical briefing, site-specific ROI analysis, or a Coolant iQ product demonstration through your local Endress+Hauser team.

Shawn Laughlin — President
(740) 610-4950  ·  Shawn.Laughlin@ChemtecEnergy.com

Andrew Mahon — VP Mission Critical
(281) 299-4180  ·  Sales@ChemtecEnergy.com

Chemtec Energy Services LLC · 11745 Cude Cemetery Road · Willis, TX 77318
chemtecenergy.com/mission-critical