Part No: RXSOL-81-1587-211
Heat transfer fluid for use in a wide range of industrial, pharmaceutical, HVAC and heat recovery applications. It is also suitable for applications requiring corrosion protection at lower glycol concentrations, such as ground source heat pumps.
ORA100 Heat Transfer Fluid is an ethylene glycol-based heat transfer fluid for use in a wide range of industrial, pharmaceutical, HVAC and heat recovery applications. It is also suitable for applications requiring corrosion protection at lower glycol concentrations, such as ground source heat pumps. Ethylene glycol-based heat transfer fluid with Inhibitor that provides best in class corrosion protection.
Here is a polished version suitable for the RXSOL-81-1587-211 ORA100 Heat Transfer Fluid product page:
Applications of RXSOL-81-1587-211 ORA100 Heat Transfer Fluid
RXSOL-81-1587-211 ORA100 Heat Transfer Fluid is suitable for a wide range of cooling, freeze-protection and thermal-management applications, including:
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HVAC (Heating, Ventilation & Air Conditioning) systems
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Process chilling, cooling and freeze protection
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Pharmaceutical and specialty chemical process cooling
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Cooling of electronic systems and components
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Wind turbine cooling systems
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Photovoltaic (PV) inverter cooling
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Data center cooling systems
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Ice skating rink refrigeration and cooling systems
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Industrial closed-loop cooling systems
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Heat exchangers and process temperature-control systems
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Chillers and secondary cooling circuits
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Temperature-sensitive industrial processes
ORA100 is particularly useful in systems requiring reliable heat transfer and freeze protection across a broad operating range. The recommended operating temperature range is approximately -50°C to 120°C, subject to the selected glycol concentration, system design and operating conditions.
RXSOL-81-1587-211 ORA100 Heat Transfer Fluid
RXSOL-81-1587-211 ORA100 Heat Transfer Fluid is an ethylene glycol-based heat transfer fluid specially formulated for efficient and reliable thermal management in cooling applications. It is particularly suitable for pharmaceutical, specialty chemical, process cooling, HVAC and industrial temperature-control systems.
The fluid provides effective heat transfer and freeze protection across a wide operating range, with a recommended operating temperature range of approximately -50°C to 120°C, subject to system design, concentration and operating conditions.
ORA100 is suitable for closed-loop cooling systems where consistent thermal performance, controlled low-temperature operation and compatibility with system materials are required.
Product: RXSOL-81-1587-211 ORA100 Heat Transfer Fluid
Base: Inhibited Ethylene Glycol
Appearance: Colourless liquid
Typical Density: 1.135 g/cm³ @ 20°C
Typical pH: 7.6–8.2 at 50% volume solution
Typical Freezing Point: Approximately -38°C at 50% volume solution
Recommended Temperature Range: Approximately -50°C to +175°C
Primary Function: Heat transfer + freeze protection + corrosion inhibition
Applications: HVAC, process heating, heat recovery, heat pumps, floor heating, renewable-energy and industrial thermal systems
Important: The numerical values above are reference/typical values based on the source technical information. The current RXSOL TDS and batch COA should be treated as the controlling specification for RXSOL-81-1587-211.
ORA-100, Heat Transfer Fluid manufacturer supplier distributor in Mumbai, Kandla, Kolkata, Vizag, Chennai, India, Fujairah, Dubai, Sharjah, UAE, Gulf, Middle East, Muscat Oman, Kenya Africa. Get the best quality of ORA-100, Heat Transfer Fluid at a competitive price from us. We have ready stock of ORA-100, Heat Transfer Fluid in India, UAE Gulf, Oman, Kenya Africa. Contact us for bulk as well as small orders.
RXSOL-81-1587-211 ORA100 Heat Transfer Fluid.
RXSOL-81-1587-211 ORA100 Heat Transfer Fluid – Questions & Answers
Frequently Asked Questions
1. What is RXSOL-81-1587-211 ORA100 Heat Transfer Fluid?
RXSOL-81-1587-211 ORA100 is an inhibited ethylene glycol-based heat transfer fluid designed for efficient heat transfer and thermal management in industrial, HVAC, infrastructure and process-heating systems.
It combines ethylene glycol with performance additives and water to provide heat-transfer capability together with corrosion protection for compatible system components.
2. What is the main function of ORA100 Heat Transfer Fluid?
The primary function of ORA100 is to transfer and circulate heat efficiently through a closed or controlled thermal system.
It can be used where the system requires protection against freezing at low temperatures while maintaining effective heat transfer at elevated operating temperatures.
3. What is the base chemical of RXSOL ORA100 Heat Transfer Fluid?
RXSOL ORA100 is based on ethylene glycol.
The reference formulation for this type of inhibited fluid contains approximately:
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Ethylene Glycol: 91% by weight
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Performance additives and water: 9% by weight
The exact RXSOL commercial specification should always be confirmed from the current batch TDS/COA.
4. Is ORA100 Heat Transfer Fluid a ready-to-use heat transfer fluid?
ORA100 is supplied as a concentrated inhibited glycol heat-transfer fluid and may be diluted with suitable water according to the required freeze protection and system design.
The required concentration depends on:
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Minimum operating temperature
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Maximum operating temperature
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Required freeze protection
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System materials
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Corrosion protection requirements
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Water quality
The reference technical information recommends concentration ranges depending on the application; concentration should therefore be selected from the current RXSOL technical documentation rather than by using a universal dilution ratio.
5. What is the recommended operating temperature range?
The reference product information indicates a recommended operating temperature range of approximately:
-50°C to +175°C
Actual system operating limits depend on concentration, equipment design, pressure, circulation conditions and the specific thermal system.
6. What is the recommended concentration of ORA100 Heat Transfer Fluid?
For corrosion protection, the reference information recommends a minimum concentration of approximately 30% for the applicable system conditions.
Other technical documentation indicates that lower concentrations may be suitable for particular temperature ranges and applications. Therefore, the correct concentration should be calculated according to the required freezing point and system operating conditions.
7. What is the freezing point of a 50% solution?
A 50% by volume solution in demineralized water has a reference freezing point of approximately:
-38°C
This value is a typical technical value and should not be treated as a universal specification for every RXSOL batch.
8. What is the appearance of ORA100 Heat Transfer Fluid?
RXSOL-81-1587-211 ORA100 is supplied as a clear/colorless liquid based on the referenced technical information.
9. What is the density of ORA100 Heat Transfer Fluid?
The reference technical data gives a typical density of approximately:
1.135 g/cm³ at 20°C
The acceptable commercial specification should be confirmed against the RXSOL batch COA.
10. What is the pH of ORA100 Heat Transfer Fluid?
For a 50% volume solution in demineralized water, the reference pH is approximately:
7.6–8.2
This represents the typical technical value of the referenced inhibited glycol formulation.
11. Does ORA100 ORA100 Heat Transfer Fluid provide corrosion protection?
Yes. ORA100 is an inhibited glycol-based heat transfer fluid, formulated with performance additives intended to provide corrosion protection in compatible thermal systems.
Particular attention is given to corrosion protection of aluminum alloys in the reference formulation.
12. Can ORA100 ORA100 Heat Transfer Fluid be used with aluminum equipment?
ORA100 Heat Transfer Fluid is suitable for systems where corrosion protection of aluminum alloys is required, subject to compatibility with the complete system.
Before filling a new or existing installation, compatibility should be checked for:
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Aluminum
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Copper
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Steel
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Stainless steel
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Brass
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Elastomers
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Seals and gaskets
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Plastics
The system manufacturer's material-compatibility recommendations should also be followed.
13. Is ORA100 Heat Transfer Fluid compatible with hard water?
The reference formulation is designed to provide hard-water stability, allowing use with suitable local water where permitted.
However, demineralized or deionized water is generally preferable when preparing glycol solutions because water quality can significantly affect scale, corrosion and fluid life.
14. Where can RXSOL ORA100 Heat Transfer Fluid be used?
Typical applications include:
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Process heating systems
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HVAC thermal systems
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Heat recovery systems
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Floor heating
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Snow-melting systems
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Heat pumps
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Renewable-energy thermal systems
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Wind-turbine systems
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Photovoltaic/PV inverter cooling systems
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Industrial heat-transfer systems
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Temperature-controlled process equipment
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Other closed-loop heating and cooling applications
The exact suitability should be confirmed according to the equipment manufacturer's requirements.
15. Can ORA100 Heat Transfer Fluid be used in heat recovery systems?
Yes. Inhibited ethylene glycol heat-transfer fluids of this type are used in heat recovery applications where freeze protection and controlled thermal transfer are required.
16. Can ORA100 Heat Transfer Fluid be used in HVAC systems?
Yes. ORA100 can be considered for suitable HVAC heating/cooling circuits and other closed-loop thermal systems where an inhibited ethylene glycol fluid is specified.
System concentration should be selected according to the required freeze protection and operating temperature.
17. Can ORA100 Heat Transfer Fluid be used in heat pumps?
Yes. Inhibited ethylene glycol heat-transfer fluids are commonly used in heat-pump and ground-source thermal systems where freeze protection is required.
The fluid concentration should be selected according to the lowest expected system temperature.
18. Does ORA100 Heat Transfer Fluid prevent freezing?
ORA100 itself is a concentrated glycol-based heat-transfer fluid. When properly diluted, it lowers the freezing point of the circulating fluid.
The level of freeze protection depends directly on the final glycol concentration. A 50% volume solution in the referenced formulation has a typical freezing point around -38°C.
19. Is ORA100 Heat Transfer Fluid water soluble?
Yes. Ethylene glycol is completely miscible with water, allowing the concentrate to be diluted to the required operating concentration.
For best system performance, use water of appropriate quality, preferably demineralized/deionized where system requirements call for it.
20. Can ORA100 Heat Transfer Fluid be mixed with another heat transfer fluid?
Mixing different heat-transfer products is not recommended without a compatibility assessment.
Different products can contain different:
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Glycol types
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Corrosion inhibitors
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Buffer systems
-
Additives
-
Stabilizers
Before topping up an existing system with ORA100, determine what fluid is already present and confirm compatibility.
21. Can ORA100 Heat Transfer Fluid be used in an existing thermal system?
Yes, subject to system compatibility and proper preparation.
Before filling, it is recommended to check:
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Existing heat-transfer fluid
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System cleanliness
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Corrosion condition
-
Water quality
-
Pumps and seals
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Expansion tank
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Required freeze protection
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Operating temperature
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Fluid concentration
22. Should the old heat-transfer fluid be removed before using ORA100 Heat Transfer Fluid?
If the existing fluid is unknown, degraded, contaminated or chemically incompatible, the system should normally be drained, cleaned and appropriately flushed before introducing a new heat-transfer fluid.
Do not automatically mix ORA100 with an unidentified glycol or inhibitor package.
23. How should ORA100 Heat Transfer Fluid concentration be selected?
The concentration should be determined from the lowest expected operating temperature and required freeze protection, while also considering corrosion protection and heat-transfer efficiency.
For critical systems, concentration should be verified using an appropriate glycol concentration measurement method and maintained within the specified operating range.
24. What are the benefits of RXSOL ORA100 Heat Transfer Fluid?
Key benefits include:
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Efficient heat transfer
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Freeze protection when properly diluted
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Corrosion-inhibited formulation
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Protection for compatible metal systems
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Suitable for industrial thermal applications
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Hard-water stability
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Compatibility with commonly used elastomers
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Long service potential when properly maintained
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Suitable for heating and heat-recovery systems
25. What is the reserve alkalinity of ORA100 Heat Transfer Fluid?
The reference technical information gives a typical reserve alkalinity of:
10.0 mL minimum
measured as specified by the applicable ASTM test method.
For RXSOL commercial supply, the current product specification and COA should be considered the controlling documents.
26. Is ORA100 Heat Transfer Fluid suitable for high-temperature applications?
The referenced technical information indicates a recommended use temperature range extending up to approximately 175°C.
However, the actual allowable temperature depends on concentration, system pressure, equipment design, fluid condition and thermal stability. Always follow the current RXSOL TDS and equipment manufacturer's operating limits.
27. Is ORA100 Heat Transfer Fluid suitable for low-temperature applications?
Yes. Properly diluted inhibited ethylene glycol fluids are particularly useful where freeze protection is required.
The final concentration must be selected according to the minimum system temperature.
28. What packaging is available for RXSOL-81-1587-211 ORA100 Heat Transfer Fluid?
RXSOL ORA100 can be supplied in suitable industrial packaging such as:
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25 L / 20 L containers
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210 L drums
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1000 L IBC
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Bulk supply, subject to order quantity
Actual packaging availability should be confirmed at the time of quotation.
29. What is the product code?
The RXSOL product identification is:
Product: ORA100 Heat Transfer Fluid
RXSOL Code: RXSOL-81-1587-211
30. What documents can be requested for ORA100 Heat Transfer Fluid?
Depending on the order and grade, customers can request:
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Technical Data Sheet (TDS)
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Safety Data Sheet (SDS)
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Certificate of Analysis (COA)
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Product specification
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Packing details
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Batch information
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Application guidance
31. How should ORA100 Heat Transfer Fluid be stored?
Store in a:
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Cool and dry area
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Well-ventilated location
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Properly labelled container
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Sealed container when not in use
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Area protected from contamination
Avoid unnecessary exposure to heat and contamination. Follow the current RXSOL SDS for detailed storage and handling requirements.
32. Is ORA100 Heat Transfer Fluid a coolant or a heat-transfer fluid?
It can perform both heat-transfer and freeze-protection functions, depending on the system.
The term “heat-transfer fluid” is generally more appropriate because the product is designed to circulate thermal energy through heating, cooling or heat-recovery systems.
33. Why should an inhibited glycol fluid be preferred over ordinary ethylene glycol?
Ordinary ethylene glycol primarily provides freeze protection and heat-transfer capability. An inhibited heat-transfer formulation additionally contains a corrosion-control package designed for use in thermal systems.
This can help protect compatible system metals and extend fluid/service life when the fluid is properly maintained.
34. How can I order RXSOL-81-1587-211 ORA100 Heat Transfer Fluid?
Customers can contact RXSOL/DUBI Chem with:
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Required quantity
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Delivery location
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System/application
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Required concentration
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Minimum operating temperature
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Maximum operating temperature
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Packaging preference
The technical team can then confirm the appropriate product specification, packing and commercial offer.
Manufacturer & Supplier in India, UAE & Oman
Here is a polished RXSOL version, keeping the wording suitable for a professional product page:
Benefits of RXSOL-81-1587-211 ORA100 Heat Transfer Fluid
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Enhanced corrosion protection, particularly for systems containing aluminum alloys
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Suitable for cooling, chilling and freeze-protection applications
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Hard-water stability, allowing use with suitable local tap water where system requirements permit
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Compatible with commonly used elastomers used in thermal-management systems
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Long fluid service life, helping reduce fluid replacement and maintenance requirements
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Free from borate and nitrate, and formulated without substances classified as CMR (Carcinogenic, Mutagenic or Reprotoxic)
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Recommended minimum concentration of 30% where corrosion protection requirements apply
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Wide operating temperature capability, making it suitable for various industrial cooling and thermal-management applications
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Suitable for HVAC, process cooling, pharmaceutical and specialty chemical systems, electronic cooling, wind turbines, PV inverters, data centers and ice rinks
RXSOL-81-1587-211 ORA100 page.
Key Applications:
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Pharmaceutical cooling systems
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Specialty chemical manufacturing
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Process cooling systems
-
Industrial chillers
-
HVAC cooling circuits
-
Heat exchangers
-
Temperature-controlled process equipment
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Closed-loop cooling systems
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Industrial refrigeration and thermal-management applications
Product Benefits:
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Ethylene glycol-based heat transfer fluid
-
Effective heat transfer performance
-
Provides freeze protection when properly diluted
-
Suitable for low-temperature cooling applications
-
Designed for closed-loop thermal systems
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Suitable for pharmaceutical and specialty chemical process environments
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Helps maintain stable process temperatures
RXSOL Product Code: RXSOL-81-1587-211
Product Name: ORA100 Heat Transfer Fluid
Base: Ethylene Glycol
Recommended Operating Temperature: -50°C to 120°C
The required concentration should be selected according to the system's minimum operating temperature, required freeze protection, equipment design and manufacturer's recommendations. Always refer to the current RXSOL TDS, SDS and COA for confirmed product specifications and application guidance.
Safety Data (MSDS)

| Porduct Name | ORA-100, Heat Transfer Fluid |
| Part Number | RXSOL-81-1587-211 |
Company Details:
RX MARINE INTERNATIONAL
105, A wing , BSEL , TECH PARK.
VASHI ,NEW BOMBAY 400703 INDIA
Branch : Kandla, Mumbai , Chennai, Vizag, Kolkata, UAE , OMAN , CANADA and KENYA
| Phone | +91 22 20871200 - 1400 |
| Fax | +91 22 27612100 :::AOH :0091 9821214367 |
| mail@rxmarine.com | |
| Website | www.rxmraine.com |

| Chemical name | Cas No | Concentration |
| Ethylene Glycol | 107-21-1 | >= 25.0 - = 96.0 % |
| Water | 7732-18-5 | = 75.0 % |
| Sebacic acid (decanedioic acid) | 111-20-6 | 5.0 % |
| Sodium benzoate | 532-32-1 | 3.5 % |
| Boron potassiium oxide (B4K2O7), tetrahydrate | 12045-78-2 | 3.0 % |
| Sodium hydroxide | 1310-73-2 | 2.0 % |
| Tolyl triazole | 29385-43-1 | >= 0.1 - 0.25 % |
| Proprietory Blend |

| GHS Classification: |
Acute toxicity - Category 4 - Oral. Skin corrosion/irritation - Category 2. Serious eye damage/eye irritation - Category 2A. Reproductive toxicity - Category 1B. Specific target organ toxicity - repeated exposure - Category 2 - Oral. |
| Signal Word: |
Danger. |
| Hazard Statements: |
Harmful if swallowed. Causes skin irritation. Causes serious eye irritation. May damage fertility or the unborn child. May cause damage to organs (Kidney) through prolonged or repeated exposure if swallowed. |
| Precautionary preventation statements: |
Obtain, read and follow all safety instructions before use. Do not breathe mist or vapours. Wash skin thoroughly after handling. Do not eat, drink or smoke when using this product. Wear protective gloves/ protective clothing/ eye protection/ face protection/ hearing protection |
| Precautionary response statements: |
IF SWALLOWED: Get medical help. Rinse mouth. IF ON SKIN: Wash with plenty of water. IF IN EYES: Rinse cautiously with water for several minutes. Remove contact lenses, if present and easy to do. Continue rinsing. IF exposed or concerned, get medical advice. If skin irritation occurs: Get medical help. If eye irritation persists: Get medical help. |
| Disposal: |
Dispose of contents and/or container to an approved waste disposal plant. |
| Storage: |
Store locked up. |

| General advice: |
First Aid responders should pay attention to self‐protection and must the recommended protective clothing (chemical resistant gloves, splash protection). If potential for exposure exists, refer to Section 8 for specific personal protective equipment. |
| If inhaled: |
Move person to fresh air and keep comfortable for breathing; consult a physician. |
|
Eye Contact: |
Flush eyes thoroughly with water for several minutes. Remove contact lenses after the initial 1-2 minutes and continue flushing for several additional minutes. If effects occur, consult a physician, preferably an ophthalmologist. |
| Swallowed: |
Do not induce vomiting. Seek medical attention immediately. If person is fully conscious give 1 cup or 8 ounces (240 ml) of water. If medical advice is delayed and if an adult has swallowed several ounces of chemical, then give 3-4 ounces (1/3-1/2 Cup) (90-120 ml) of hard liquor such as 80 proof whiskey. For children, give proportionally less liquor at a dose of 0.3 ounce (1 1/2 tsp.) (8 ml) liquor for each 10 pounds of body weight, or 2 ml per kg body weight [e.g., 1.2 ounce (2 1/3 tbsp.) for a 40 pound child or 36 ml for an 18 kg child]. |
| Skin Contact: |
Immediately flush skin with water while removing contaminated clothing and shoes. Get medical attention if symptoms occur. Wash clothing before reuse. Destroy contaminated leather items such as shoes, belts, and watchbands. Suitable emergency safety shower facility should be immediately available. |
| Note to physician: | Maintain adequate ventilation and oxygenation of the patient. If several ounces (60 - 100 ml) of ethylene glycol have been ingested, early administration of ethanol may counter the toxic effects (metabolic acidosis, renal damage). Consider hemodialysis or peritoneal dialysis & thiamine 100 mg plus pyridoxine 50 mg intravenously every 6 hours. If ethanol is used, a therapeutically effective blood concentration in the range of 100 - 150 mg/dl may be achieved by a rapid loading dose followed by a continuous intravenous infusion. Consult standard literature for details of treatment. 4-Methyl pyrazole (Antizol®) is an effective blocker of alcohol dehydrogenase and should be used in the treatment of ethylene glycol (EG), di- or triethylene glycol (DEG, TEG), ethylene glycol butyl ether (EGBE), or methanol intoxication if available. Fomepizole protocol (Brent, J. et al., New England Journal of Medicine, Feb. 8, 2001, 344:6, p. 424-9): loading dose 15 mg/kg intravenously, follow by bolus dose of 10 mg/kg every 12 hours; after 48 hours, increase bolus dose to 15 mg/kg every 12 hours. Continue fomepizole until serum methanol, EG, DEG, TEG or EGBE are undetectable. The signs and symptoms of poisoning include anion gap metabolic acidosis, CNS depression, renal tubular injury, and possible late stage cranial nerve involvement. Respiratory symptoms, including pulmonary edema, may be delayed. Persons receiving significant exposure should be observed 24-48 hours for signs of respiratory distress. In severe poisoning, respiratory support with mechanical ventilation and positive end expiratory pressure may be required. If burn is present, treat as any thermal burn, after decontamination. If lavage is performed, suggest endotracheal and/or esophageal control. Danger from lung aspiration must be weighed against toxicity when considering emptying the stomach. Treatment of exposure should be directed at the control of symptoms and the clinical condition of the patient. |
| Most important symptoms and effects, both acute and delayed: |
Harmful if swallowed. Causes skin irritation. Causes serious eye irritation. May damage fertility or the unborn child. May cause damage to organs through prolonged or repeated exposure if swallowed |

| Hazardous combustion products: | During a fire, smoke may contain the original material in addition to combustion products of varying composition which may be toxic and/or irritating. Combustion products may include and are not limited to: Carbon monoxide, Carbon dioxide. |
| Unusual Fire and Explosion Hazards: | Container may rupture from gas generation in a fire situation. Violent steam generation or eruption may occur upon application of direct water stream to hot liquids.. Liquid mist of this product can burn. Flammable concentrations of vapor can accumulate at temperatures above flash point. |
| Suitable extinguishing media: |
Water fog or fine spray.. Dry chemical fire extinguishers.. Carbon dioxide fire extinguishers. Foam. Alcohol resistant foams (ATC type) are preferred. General purpose synthetic foams (including AFFF) or protein foams may function, but will be less effective. |
| Unsuitable extinguishing media: | Do not use direct water stream. May spread fire. |
| Special fire fighting procedures: |
Keep people away. Isolate fire and deny unnecessary entry. Use water spray to cool fire exposed containers and fire affected zone until fire is out and danger of reignition has passed. Fight fire from protected location or safe distance. Consider the use of unmanned hose holders or monitor nozzles. Immediately withdraw all personnel from the area in case of rising sound from venting safety device or discoloration of the container. Burning liquids may be extinguished by dilution with water. Do not use direct water stream. May spread fire.. Move container from fire area if this is possible withouthazard. Burning liquids may be moved by flushing with water to protect personnel and minimize property damage. |
| Special protective equipment for firefighters: |
Wear positive-pressure self-contained breathing apparatus (SCBA) and protective fire fighting clothing (includes fire fighting helmet, coat, trousers, boots, and gloves). Avoid contact with this material during fire fighting operations. If contact is likely, change to full chemical resistant fire fighting clothing with selfcontained breathing apparatus. If this is not available, wear full chemical resistant clothing with self-contained breathing apparatus and fight fire from a remote location. For protective equipment in post-fire or non-fire clean-up situations, see Section 8 of the safety data sheet. |

|
Personal precautions, protective equipment and emergency procedures: |
Isolate area. Keep unnecessary and unprotected personnel from entering the area. Refer to section 7, Handling, for additional precautionary measures. Use appropriate safety equipment. For additional information, refer to Section 8, Exposure Controls and Personal Protection. |
|
Enviromental Precaution: |
Prevent from entering into soil, ditches, sewers, waterways and/or groundwater. See Section 12, Ecological Information |
| Containment and cean up measures: |
Small spills: Absorb with materials such as: Cat litter. Sawdust. Vermiculite. Zorb-all. Collect in suitable and properly labeled containers. Large spills: Dike area to contain spill. See Section 13, Disposal Considerations, for additional information. |

|
Precautions for safe handling: |
Do not swallow. Avoid contact with eyes. Wash thoroughly after handling. Spills of these organic materials on hot fibrous insulations may lead to lowering of the autoignition temperatures possibly resulting in spontaneous combustion. |
|
Precaution for Storage: |
Do not store in: Galvanized steel. Opened or unlabeled containers. Store in the following material(s): Carbon steel. Stainless steel. Store in original unopened container. Store away from direct sunlight. Store in tightly closed container. Use only with adequate ventilation. See Section 10 for more specific information. Additional storage and handling information on this product may be obtained by calling your sales or customer service contact. |

| Engineering controls: |
Use local exhaust ventilation, or other engineering controls to maintain airborne levels below exposure limit requirements or guidelines. If there are no applicable exposure limit requirements or guidelines, general ventilation should be sufficient for most operations. Local exhaust ventilation may be necessary for some operations. |
| Eye/face protection: |
Use safety glasses (with side shields). If there is a potential for exposure to particles which could cause eye discomfort, wear chemical goggles. If exposure causes eye discomfort, use a full-face respirator. |
| Skin protection: |
Use gloves chemically resistant to this material when prolonged or frequently repeated contact could occur. Use gloves with insulation for thermal protection, when needed. If hands are cut or scratched, use gloves chemically resistant to this material even for brief exposures. Examples of preferred glove barrier materials include: Natural rubber ("latex"). Nitrile/butadiene rubber ("nitrile" or "NBR"). Polyethylene. Ethyl vinyl alcohol laminate ("EVAL"). Polyvinyl alcohol ("PVA"). Polyvinyl chloride ("PVC" or "vinyl"). Examples of acceptable glove barrier materials include: Neoprene. NOTICE: The selection of a specific glove for a particular application and duration of use in a workplace should also take into account all relevant workplace factors such as, but not limited to: Other chemicals which may be handled, physical requirements (cut/puncture protection, dexterity, thermal protection), potential body reactions to glove materials, as well as the instructions/specifications provided by the glove supplier. Other protection: When prolonged or frequently repeated contact could occur, use protective clothing chemically resistant to this material. Selection of specific items such as faceshield, boots, apron, or full-body suit will depend on the task. When handling hot material, protect skin from thermal burns as well as from skin absorption. |
| Respiratory protection: |
Respiratory protection should be worn when there is a potential to exceed the exposure limit requirements or guidelines. If there are no applicable exposure limit requirements or guidelines, wear respiratory protection when adverse effects, such as respiratory irritation or discomfort have been experienced, or where indicated by your risk assessment process. For most conditions, no respiratory protection should be needed; however, if material is heated or sprayed, use an approved air-purifying respirator. The following should be effective types of air-purifying respirators: Organic vapor cartridge with a particulate pre-filter. |

| Physical state: | Liquid. |
| Colour: | Color is variable |
| Odour: | Characteristic |
| Odor Threshold: | No data available. |
| pH: | 7.6 - 8.2 |
| Melting Point: | Not available |
| Freezing point: | -51-14 °C |
| Boiling Point: | 170 °C |
| Flash Point: | 120 °C at 760 mmHg |
| Evaporation Rate: | 0.5 |
| Flammability (solid, gas) | Non‐Combustible |
| Explosive limits | No data Available. |
| Decomposition temperature | No data available. |
| Vapour pressure: | 3 mbar at 20 °C |
| Viscosity: | 10 - 30 mm2/s at 20 °C |
| Relative Density: | 1.044 - 1.134 at 20 °C / 20 °C |
| Specific Gravity: | No data available. |
| Partition coefficient: | No data available. |
| Explosive properties: | 3.2 % vol Liquid. |
| Solubility: | completely miscible |
| Ignition temperature: | 435 °C |
| Oxidizing properties: | No data available. |
| Particle characteristics: | No data available. |
| Vapor density: | 0.670 |

| Reactivity: |
No data available. |
| Chemical stability: |
Thermally stable at typical use temperatures. |
| Possibility of hazardous reactions: | Polymerization will not occur. |
| Conditions to avoid: |
Exposure to elevated temperatures can cause product to decompose. Generation of gas during decomposition can cause pressure in closed systems. |
| Incompatible materials: |
Avoid contact with: Strong acids. Strong bases. Strong oxidizers
|
| Hazardous decomposition products: |
Decomposition products depend upon temperature, air supply and the presence of other materials. Decomposition products can include and are not limited to: Aldehydes, Alcohols, Ethers. |

| Information on likely routes of exposure: |
Ingestion, Inhalation, Skin contact, Eye contact. |
| Acute Toxicity Endpoints: |
Harmful if swallowed. Acute oral toxicity Information for the Product: Oral toxicity is expected to be moderate in humans due to ethylene glycol even though tests with animals show a lower degree of toxicity. Ingestion of quantities (approximately 65 mL (2 oz.) for diethylene glycol or 100 mL (3 oz.) for ethylene glycol) has caused death in humans. Excessive exposure may cause central nervous system effects, cardiopulmonary effects (metabolic acidosis), and kidney failure. May cause nausea and vomiting. May cause abdominal discomfort or diarrhea. For Ethylene glycol: Lethal Dose, Human, adult, 100 ml For Ethylene glycol: LD50, Rat, 6,000 - 13,000 mg/kg Information for components: Ethylene glycol: In humans, expected to be moderately toxic if swallowed even though oral toxicity was low when tested in animals. Ingestion of quantities (approximately 65 mL (2 oz.) for diethylene glycol or 100 mL (3 oz.) for ethylene glycol) has caused death in humans. Small amounts swallowed incidentally as a result of normal handling operations are not likely to cause injury; however, swallowing larger amounts may cause injury. May cause nausea and vomiting. May cause abdominal discomfort or diarrhea. Excessive exposure may cause central nervous system effects, cardiopulmonary effects (metabolic acidosis), and kidney failure. Lethal Dose, Human, adult, 100 ml Estimated. Sebacic acid (decanedioic acid): LD50, Rat, male and female, > 5,000 mg/kg Sodium benzoate: LD50, Rat, male and female, 2,100 - 3,450 mg/kg Estimated. Boron potassiium oxide (B4K2O7), tetrahydrate: Low toxicity if swallowed. Small amounts swallowed incidentally as a result of normal handling operations are not likely to cause injury; however, swallowing larger amounts may cause injury. Typical for this family of materials. LD50, Rat, male, 3,690 mg/kg Sodium hydroxide: Single dose oral LD50 has not been determined. Tolyl triazole: LD50, Rat, male and female, 720 mg/kg OECD Test Guideline 401 |
| Acute dermal toxicity |
Information for the Product: Prolonged skin contact is unlikely to result in absorption of harmful amounts. Repeated skin exposure to large quantities may result in absorption of harmful amounts. Massive contact with damaged skin or of material sufficiently hot to burn skin may result in absorption of potentially lethal amounts. For Ethylene glycol: LD50, Rabbit, > 22,270 mg/kg Information for components: Ethylene glycol: LD50, Rabbit, > 10,600 mg/kg LD50, Mouse, male and female, > 3,500 mg/kg Sebacic acid (decanedioic acid): LD50, Rat, > 2,000 mg/kg OECD 402 or equivalent No deaths occurred at this concentration. Sodium benzoate: The dermal LD50 has not been determined. Boron potassiium oxide (B4K2O7), tetrahydrate: Prolonged skin contact is unlikely to result in absorption of harmful amounts. Typical for this family of materials. LD50, Rat, male and female, > 2,000 mg/kg No deaths occurred at this concentration. Sodium hydroxide: The dermal LD50 has not been determined. Tolyl triazole Product name: LD50, Rabbit, > 5,000 mg/kg |
| Acute inhalation toxicity |
Information for the Product: At room temperature, exposure to vapor is minimal due to low volatility. With good ventilation, single exposure is not expected to cause adverse effects. If material is heated or areas are poorly ventilated, vapor/mist may accumulate and cause respiratory irritation and symptoms such as headache and nausea. As product: The LC50 has not been determined. Information for components: Ethylene glycol: LC50, Rat, male and female, 6 Hour, dust/mist, > 2.5 mg/l Sebacic acid (decanedioic acid): The LC50 has not been determined. Sodium benzoate: The LC50 has not been determined. Boron potassiium oxide (B4K2O7), tetrahydrate: No adverse effects are anticipated from single exposure to dust. Dust may cause irritation to upper respiratory tract (nose and throat). Typical for this family of materials. LC50, Rat, male and female, 4 Hour, dust/mist, > 2.03 mg/l OECD Test Guideline 403 No deaths occurred at this concentration. Sodium hydroxide The LC50 has not been determined. Tolyl triazole: The LC50 has not been determined. |
| Eye and skin contact: |
Causes skin irritation. Information for the Product: Based on information for component(s): Brief contact is essentially nonirritating to skin. Prolonged contact may cause slight skin irritation with local redness. Repeated contact may cause slight skin irritation with local redness. Information for components: Ethylene glycol Brief contact is essentially nonirritating to skin. Prolonged contact may cause slight skin irritation with local redness. Repeated contact may cause skin irritation with local redness. Sebacic acid (decanedioic acid): Brief contact is essentially nonirritating to skin. Sodium benzoate: Brief contact is essentially nonirritating to skin. Boron potassiium oxide (B4K2O7), tetrahydrate: Brief contact is essentially nonirritating to skin. Sodium hydroxide: Brief contact may cause severe skin burns. Symptoms may include pain, severe local redness and tissue damage. Tolyl triazole: Based on product testing: Brief contact is essentially nonirritating to skin. |
| Serious eye damage/eye irritation |
Causes serious eye irritation. Information for the Product: Based on information for component(s): May cause slight eye irritation. Corneal injury is unlikely. Vapor or mist may cause eye irritation. Information for components: Ethylene glycol May cause slight eye irritation. Corneal injury is unlikely. Vapor or mist may cause eye irritation. Sebacic acid (decanedioic acid) May cause slight eye irritation. Corneal injury is unlikely. Sodium benzoate May cause severe eye irritation. Corneal injury is unlikely. Boron potassiium oxide (B4K2O7), tetrahydrate May cause slight eye irritation. Corneal injury is unlikely. Sodium hydroxide May cause severe irritation with corneal injury which may result in permanent impairment of vision, even blindness. Chemical burns may occur. Dust may irritate eyes. Tolyl triazole Product: Based on product testing: May cause slight eye irritation. |
| Sensitization |
Information for the Product: For skin sensitization: Contains component(s) which did not cause allergic skin sensitization in guinea pigs. Information for components: Ethylene glycol: Did not cause allergic skin reactions when tested in guinea pigs. For respiratory sensitization: No relevant data found. Sebacic acid (decanedioic acid) Skin contact may cause an allergic skin reaction in a small proportion of individuals. Sodium benzoate: Skin contact may cause an allergic skin reaction in a small proportion of individuals. Boron potassiium oxide (B4K2O7), tetrahydrate: For this family of materials, sensitization studies done in guinea pigs have been negative. Sodium hydroxide: Did not cause allergic skin reactions when tested in humans. For respiratory sensitization: No relevant data found. Tolyl triazole Did not cause allergic skin reactions when tested in guinea pigs. |
| Specific Target Organ Systemic Toxicity (Single Exposure) |
Information for components: Ethylene glycol: Evaluation of available data suggests that this material is not an STOT-SE toxicant. Sebacic acid (decanedioic acid) Available data are inadequate to determine single exposure specific target organ toxicity. Sodium benzoate: Available data are inadequate to determine single exposure specific target organ toxicity. Boron potassiium oxide (B4K2O7), tetrahydrate Evaluation of available data suggests that this material is not an STOT-SE toxicant. Sodium hydroxide: Material is corrosive. Material is not classified as a respiratory irritant; however, upper respiratory tract irritation or corrosivity may be expected. Tolyl triazole: Evaluation of available data suggests that this material is not an STOT-SE toxicant. |
| Aspiration Hazard |
Information for the Product: Based on physical properties, not likely to be an aspiration hazard. Information for components: Ethylene glycol: Based on physical properties, not likely to be an aspiration hazard. Sebacic acid: (decanedioic acid) Based on physical properties, not likely to be an aspiration hazard. Sodium benzoate: Based on physical properties, not likely to be an aspiration hazard. Boron potassiium oxide (B4K2O7), tetrahydrate: Based on physical properties, not likely to be an aspiration hazard. Sodium hydroxide: Aspiration into the respiratory system may occur during ingestion or vomiting. Due to corrosivity, tissue damage or lung injury may occur. Tolyl triazole: Based on physical properties, not likely to be an aspiration hazard. |
| Specific Target Organ Systemic Toxicity (Repeated Exposure) |
May cause damage to organs (Kidney) through prolonged or repeated exposure if swallowed. Information for components: Ethylene glycol: Observations in humans include: Nystagmus (involuntary eye movement). In animals, effects have been reported on the following organs: Kidney. Liver. Sebacic acid (decanedioic acid): No relevant data found. Sodium benzoate: In animals, effects have been reported on the following organs: Liver. Boron potassiium oxide (B4K2O7), tetrahydrate: For this family of materials: In humans, symptoms may include: Respiratory effects. In animals, effects have been reported on the following organs: Central nervous system. Testes. Sodium hydroxide: Based on available data, repeated exposures are not anticipated to cause additional significant adverse effects. Tolyl triazole: Based on available data, repeated exposures are not anticipated to cause significant adverse effects. |
| Carcinogenicity: |
Information for components: Ethylene glycol: Ethylene glycol did not cause cancer in long-term animal studies. Sebacic acid (decanedioic acid) No relevant data found. Sodium benzoat: No relevant data found. Boron potassiium oxide (B4K2O7), tetrahydrate: For this family of materials: Did not cause cancer in laboratory animals. Sodium hydroxide: No relevant data found. Tolyl triazole: No relevant data found |
| Reproductive toxicity: |
May damage fertility or the unborn child. Information for components: Ethylene glycol: Ingestion of large amounts of ethylene glycol has been shown to interfere with reproduction in animals. Sebacic acid (decanedioic acid) No relevant data found. Sodium benzoate: No relevant data found. Boron potassiium oxide (B4K2O7), tetrahydrate: In animal studies, boron compounds have been shown to interfere with fertility in males, and to a lesser degree in females. Sodium hydroxide: No relevant data found. Tolyl triazole: No relevant data found. |
| Teratogenicity |
May damage fertility or the unborn child.
Information for components:
Ethylene glycol: Based on animal studies, ingestion of very large amounts of ethylene glycol appears to be the major and possibly only route of exposure to produce birth defects. Exposures by inhalation or skin contact, the primary routes of occupational exposure, had minimal effect on the fetus, in animal studies.
Sebacic acid (decanedioic acid): No relevant data found.
Sodium benzoate: Did not cause birth defects or any other fetal effects in laboratory animals.
Boron potassiium oxide (B4K2O7), tetrahydrate: In laboratory animals, boron compounds have caused birth defects only at doses toxic to the mother and have been toxic to the fetus at doses nontoxic to the mother.
Sodium hydroxide: No relevant data found.
Tolyl triazole: Has caused birth defects in laboratory animals.
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| Mutagenicity |
Not classified based on available information. Information for components: Ethylene glycol: In vitro genetic toxicity studies were negative. Animal genetic toxicity studies were negative. Sebacic acid (decanedioic acid): In vitro genetic toxicity studies were negative. Sodium benzoate: In vitro genetic toxicity studies were negative in some cases and positive in other cases. Animal genetic toxicity studies were negative. Boron potassiium oxide (B4K2O7), tetrahydrate: For this family of materials: In vitro mutagenicity studies were negative. Animal genetic toxicity studies were negative. Sodium hydroxide: In vitro genetic toxicity studies were negative. Tolyl triazole: In vitro genetic toxicity studies were negative. Animal genetic toxicity studies were negative. |

|
Ethylene glycol: Acute toxicity to fish: Material is practically non-toxic to aquatic organisms on an acute basis (LC50/EC50/EL50/LL50 >100 mg/L in the most sensitive species tested). LC50, Pimephales promelas (fathead minnow), static test, 96 Hour, 72,860 mg/l. Acute toxicity to aquatic invertebrates: EC50, Daphnia magna (Water flea), static test, 48 Hour, > 100 mg/l, OECD Test Guideline 202 or Equivalent . Acute toxicity to algae/aquatic plants ErC50, Pseudokirchneriella subcapita, 96 Hour, Growth rate inhibition, 6,500 - 13,000 mg/l . Toxicity to bacteria EC50, activated sludge, 30 min, 225 mg/l, OECD 209 Test. Chronic toxicity to fish NOEC, Pimephales promelas (fathead minnow), 7 d, 15,380 mg/l. Chronic toxicity to aquatic invertebrates NOEC, Ceriodaphnia dubia (water flea), 7 d, 8,590 mg/l Sebacic acid (decanedioic acid): Acute toxicity to fish Material is practically non-toxic to aquatic organisms on an acute basis (LC50/EC50/EL50/LL50 >100 mg/L in the most sensitive species tested). LC50, Brachydanio rerio (zebrafish), 96 Hour, > 100 mg/l, OECD Test Guideline 203 or Equivalent Acute toxicity to aquatic invertebrates EC50, Daphnia magna (Water flea), 48 Hour, > 100 mg/l, OECD Test Guideline 202 or Equivalent Acute toxicity to algae/aquatic plants EL50, Skeletonema costatum (marine diatom), 72 Hour, Growth rate, 38.7 mg/l Sodium benzoate: Acute toxicity to fish Material is practically non-toxic to aquatic organisms on an acute basis (LC50/EC50/EL50/LL50 >100 mg/L in the most sensitive species tested). LC50, Pimephales promelas (fathead minnow), static test, 96 Hour, > 100 mg/l Acute toxicity to aquatic invertebrates EC50, Daphnia magna (Water flea), static test, 96 Hour, > 100 mg/l Acute toxicity to algae/aquatic plants ErC50, Pseudokirchneriella subcapitata (green algae), static test, 72 Hour, > 100 mg/l Boron potassiium oxide (B4K2O7), tetrahydrate: Acute toxicity to fish For this family of materials: Material is practically non-toxic to aquatic organisms on an acute basis (LC50/EC50/EL50/LL50 >100 mg/L in the most sensitive species tested). For this family of materials: LC50, dab (Limanda limanda), flow-through, 96 Hour, 523 mg/l Acute toxicity to aquatic invertebrates For this family of materials: LC50, Daphnia magna (Water flea), static test, 48 Hour, 939 mg/l, OECD Test Guideline 202 or Equivalent Sodium hydroxide: Acute toxicity to fish May increase pH of aquatic systems to > pH 10 which may be toxic to aquatic organisms. Tolyl triazole: Acute toxicity to fish Material is moderately toxic to aquatic organisms on an acute basis (LC50/EC50 between 1 and 10 mg/L in the most sensitive species tested). LC50, Cyprinodon variegatus (sheepshead minnow), semi-static test, 96 Hour, 55 mg/l, OECD Test Guideline 203 Acute toxicity to aquatic invertebrates LC50, copepod Acartia tonsa, static test, 48 Hour, 55 mg/l For similar material(s): EC50, Daphnia galeata (water flea), static test, 48 Hour, 8.58 mg/l For similar material(s): EC50, Daphnia galeata (water flea), static test, 48 Hour, 15.8 mg/l Acute toxicity to algae/aquatic plants EC50, Skeletonema costatum (marine diatom), static test, 72 Hour, Growth rate inhibition, 53 mg/l NOEC, Skeletonema costatum (marine diatom), static test, 72 Hour, Growth rate inhibition, 30 mg/l For similar material(s): EC10, Desmodesmus subspicatus (green algae), 72 Hour, Growth rate inhibition, 2.86 mg/l For similar material(s): NOEC, Desmodesmus subspicatus (green algae), 72 Hour, Growth rate inhibition, 2.5 mg/l For similar material(s): EC10, Desmodesmus subspicatus (green algae), 72 Hour, Growth rate inhibition, 1.18 mg/l For similar material(s) NOEC, Desmodesmus subspicatus (green algae), 72 Hour, Growth rate inhibition, 1.2 mg/l Chronic toxicity to aquatic invertebrates NOEC, Daphnia magna (Water flea), semi-static test, 21 d, Reproduction, 18.4 mg/l For similar material(s): EC10, Daphnia galeata (water flea), 21 d, Reproduction, 0.4 mg/l For similar material(s): EC10, Daphnia galeata (water flea), 21 d, Reproduction, 0.97 mg/l |
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| Persistence and degradability: |
Ethylene glycol Biodegradability: Material is readily biodegradable. Passes OECD test(s) for ready biodegradability. Material has inherent, ultimate biodegradability according to OECD test (s) guidelines (reaches > 60 or 70% biodegradation in OECD test(s). 10-day Window: Pass Biodegradation: 90 - 100 % Exposure time: 10 d Method: OECD Test Guideline 301A or Equivalent 10-day Window: Not applicable Biodegradation: 90 % Exposure time: 1 d Method: OECD Test Guideline 302B or Equivalent Theoretical Oxygen Demand: 1.29 mg/mg Sebacic acid (decanedioic acid): Biodegradability: Material is readily biodegradable. Passes OECD test(s) for ready biodegradability. 10-day Window: Pass Biodegradation: 98 % Exposure time: 7 d Method: OECD Test Guideline 301E or Equivalent Sodium benzoate: Biodegradability: Material is readily biodegradable. Passes OECD test(s) for ready biodegradability. 10-day Window: Pass Biodegradation: > 74 % Exposure time: 28 d Method: OECD Test Guideline 301B or Equivalent Boron potassiium oxide (B4K2O7), tetrahydrate: Biodegradability: Biodegradation is not applicable. Sodium hydroxide: Biodegradability: Biodegradability is not applicable to inorganic substances. Tolyl triazole: Biodegradability: Material is expected to biodegrade very slowly (in the environment). Fails to pass OECD/EEC tests for ready biodegradability. Biodegradation: 4 % Exposure time: 28 d |
| Bioaccumulative potential |
Ethylene glycol: Bioaccumulation: Bioconcentration potential is low (BCF 100 or Log Pow 3). Partition coefficient: n-octanol/water(log Pow): -1.36 Measured Bioconcentration factor (BCF): 10 Leuciscus idus (Golden orfe) Sebacic acid (decanedioic acid) Bioaccumulation: Bioconcentration potential is low (BCF 100 or Log Pow 3). Partition coefficient: n-octanol/water(log Pow): 1.5 OECD Test Guideline 117 or Equivalent Sodium benzoate Bioaccumulation: Bioconcentration potential is low (BCF 100 or Log Pow 3). Partition coefficient: n-octanol/water(log Pow): -2.27 Estimated. Boron potassiium oxide (B4K2O7), tetrahydrate Bioaccumulation: Partitioning from water to n-octanol is not applicable. Sodium hydroxide Bioaccumulation: No bioconcentration is expected because of the relatively high water solubility. Tolyl triazole Bioaccumulation: Bioconcentration potential is low (BCF 100 or Log Pow 3). Partition coefficient: n-octanol/water(log Pow): 1.71 Est |
| Mobility in soil: |
Ethylene glycol: Given its very low Henry's constant, volatilization from natural bodies of water or moist soil is not expected to be an important fate process. Partition coefficient (Koc): 1 Estimated. Sebacic acid (decanedioic acid): No relevant data found. Sodium benzoate: No relevant data found. Boron potassiium oxide (B4K2O7), tetrahydrate: No relevant data found. Sodium hydroxide Partition coefficient (Koc): 14 Estimated. Tolyl triazole Partition coefficient (Koc): 1647 Estimated. |
| Results of PBT and vPvB assessment |
Ethylene glycol: This substance is not considered to be persistent, bioaccumulating and toxic (PBT). This substance is not considered to be very persistent and very bioaccumulating (vPvB). Sebacic acid (decanedioic acid): This substance has not been assessed for persistence, bioaccumulation and toxicity (PBT). Sodium benzoate: This substance has not been assessed for persistence, bioaccumulation and toxicity (PBT). Boron potassiium oxide (B4K2O7), tetrahydrate:This substance has not been assessed for persistence, bioaccumulation and toxicity (PBT). Sodium hydroxide: This substance is not considered to be persistent, bioaccumulating and toxic (PBT). This substance is not considered to be very persistent and very bioaccumulating (vPvB). Tolyl triazole: This substance is not considered to be persistent, bioaccumulating and toxic (PBT). This substance is not considered to be very persistent and very bioaccumulating (vPvB). |
| Other adverse effects: |
Ethylene glycol: This substance is not on the Montreal Protocol list of substances that deplete the ozone layer. Sebacic acid (decanedioic acid): This substance is not on the Montreal Protocol list of substances that deplete the ozone layer. Sodium benzoate: This substance is not on the Montreal Protocol list of substances that deplete the ozone layer. Boron potassiium oxide (B4K2O7), tetrahydrate: This substance is not on the Montreal Protocol list of substances that deplete the ozone layer. Sodium hydroxide: This substance is not on the Montreal Protocol list of substances that deplete the ozone layer. Tolyl triazole: This substance is not on the Montreal Protocol list of substances that deplete the ozone layer. |

| Disposal methods: |
Do not dump into any sewers, on the ground, or into any body of water. All disposal practices must be in compliance with all federal, state/provincial and local laws and regulations. Regulations may vary in different locations. Waste characterizations and compliance with applicable laws are the responsibility of the waste generator. As your supplier, we have no control over the management practices or manufacturing processes of parties handling or using this material. The information presented here pertains only to the product as shipped in its intended condition as described in sds section 1: identified uses. For unused & uncontaminated product, the preferred options include sending to a licensed, permitted: recycler. Reclaimer. Incinerator or other thermal destruction device. |

| UN number: |
Not regulated |
| UN proper shipping name: |
Not regulated |
| Transport hazard class(es): |
Not regulated |
| Packaging group |
Not regulated |
| Environmental hazards: |
Not regulated |
| Special precautions for user: |
Not regulated |
| Further information: |
Not regulated. |

This product has been classified in accordance with the criteria of the Globally Harmonized System of Classification and Labelling of Chemicals (GHS), rev. 8.

| Other Information: |
The information provided in this Safety Data Sheet is correct to the best of our knowledge, information and belief at the date of its publication. The information given is designed only as guidance for safe handling, use, processing, storage, transportation, disposal and release and is not to be considered a warranty or quality specification. The information relates only to the specific material designated and may not be valid for such material used in combination with any other materials or in any process unless specified in the text. |