Fill and Flow for Thermal Regulation

Enhanced Safety, Improved Performance,
Higher Cost Efficiency

Thermal Regulation for
Every Industry

Thermal management requires a strategic design approach, specifically for passive systems, which requires a solution to have:

  • A minimal impact on the overall weight of the battery system
  • High heat absorption properties from tailorable temperature ranges

Fill and Flow provides these critical factors for Li-ion batteries in one all-encompassing solution designed specifically for your application.

Product_photos-02_Newer

How the Fill and Flow Technology Works

Our thermal regulation solution material provides passive energy absorption, thermal
homogeneity, and performance improvement for your product requirements.

Fill & Flow is designed to easily fill enclosed and small-cavity systems by completely flowing
around, encompassing, and contacting all surfaces of fully enclosed cells and packs.

New_Graphs_for_Site_1

Fill & Flow Product Specifications

Take a closer look at our core technology designed for your IP65-rated or higher battery pack.

  • Temperature (PPT)

    35-39 °C

  • Latent Heat

    210-230 kJ/kg

  • Specific Gravity @ 22 °C

    0.8

  • Viscosity above PPT (cps)

    25-100

  • Operating Temp. Range

    -10–120 °C

  • Volume Resistivity

    1.1 x 10^5 Ωcm

  • Dielectric Constant

    2.04

  • Dielectric Strength**

    21.71 MV/m

  • RoHS Compliance

    Compliant

  • Avg. Specific Heat Capacity, Cp–Below PTT *

    1.85 J/g °C

  • Avg. Specific Heat Capacity, Cp—Above PPT*

    2.35 J/g °C

  • Avg. Thermal Conductivity, – Below PPT*

    0.35 W/m·k

  • Avg. Thermal Conductivity, – Above PPT*

    0.25 W/m·k

*Viscosity determined at 20°C above the transition temperature.

*Other phase transition temperatures up to 130°C are available.


*Similar to most solid and liquid materials, the specific heat capacity and thermal conductivity have insignificant change above and below the transition temperature


**Tested at 3 mm thickness 

  • Temperature (PPT)

    42-46 °C

  • Latent Heat

    180-200 kJ/kg

  • Specific Gravity @ 22 °C

    0.8

  • Viscosity above PPT (cps)

    25-100

  • Operating Temp. Range

    -10–120 °C

  • Volume Resistivity

    4-5 x 10^13 Ωcm

  • Dielectric Constant

    3.05

  • Dielectric Strength**

    36.63 MV/m

  • RoHS Compliance

    Compliant

  • Avg. Specific Heat Capacity, Cp–Below PTT *

    1.90 J/g °C

  • Avg. Specific Heat Capacity, Cp—Above PPT*

    2.45 J/g °C

  • Avg. Thermal Conductivity, – Below PPT*

    0.35 W/m·k

  • Avg. Thermal Conductivity, – Above PPT*

    0.25 W/m·k

*Viscosity determined at 20°C above the transition temperature.

*Other phase transition temperatures up to 130°C are available.


*Similar to most solid and liquid materials, the specific heat capacity and thermal conductivity have insignificant change above and below the transition temperature


**Tested at 3 mm thickness 

  • Temperature (PPT)

    49-51 °C

  • Latent Heat

    200-220 kJ/kg

  • Specific Gravity @ 22 °C

    0.8

  • Viscosity above PPT (cps)

    25-100

  • Operating Temp. Range

    -10–120 °C

  • Volume Resistivity

    4-5 x 10^13 Ωcm

  • Dielectric Constant

    3.05

  • Dielectric Strength**

    36.63 MV/m

  • RoHS Compliance

    Compliant

  • Avg. Specific Heat Capacity, Cp–Below PTT *

    1.90 J/g °C

  • Avg. Specific Heat Capacity, Cp—Above PPT*

    2.45 J/g °C

  • Avg. Thermal Conductivity, – Below PPT*

    0.35 W/m·k

  • Avg. Thermal Conductivity, – Above PPT*

    0.25 W/m·k

*Viscosity determined at 20°C above the transition temperature.

*Other phase transition temperatures up to 130°C are available.


*Similar to most solid and liquid materials, the specific heat capacity and thermal conductivity have insignificant change above and below the transition temperature


**Tested at 3 mm thickness 

  • Temperature (PPT)

    53-57 °C

  • Latent Heat

    210-230 kJ/kg

  • Specific Gravity @ 22 °C

    0.8

  • Viscosity above PPT (cps)

    25-100

  • Operating Temp. Range

    -10–120 °C

  • Volume Resistivity

    4-5 x 10^13 Ωcm

  • Dielectric Constant

    3.05

  • Dielectric Strength**

    36.63 MV/m

  • RoHS Compliance

    Compliant

  • Avg. Specific Heat Capacity, Cp–Below PTT *

    1.90 J/g °C

  • Avg. Specific Heat Capacity, Cp—Above PPT*

    2.45 J/g °C

  • Avg. Thermal Conductivity, – Below PPT*

    0.35 W/m·k

  • Avg. Thermal Conductivity, – Above PPT*

    0.25 W/m·k

*Viscosity determined at 20°C above the transition temperature.

*Other phase transition temperatures up to 130°C are available.


*Similar to most solid and liquid materials, the specific heat capacity and thermal conductivity have insignificant change above and below the transition temperature


**Tested at 3 mm thickness 

  • Temperature (PPT)

    59-63 °C

  • Latent Heat

    210-230 kJ/kg

  • Specific Gravity @ 22 °C

    0.8

  • Viscosity above PPT (cps)

    25-100

  • Operating Temp. Range

    -10–120 °C

  • Volume Resistivity

    4-5 x 10^13 Ωcm

  • Dielectric Constant

    3.05

  • Dielectric Strength**

    36.63 MV/m

  • RoHS Compliance

    Compliant

  • Avg. Specific Heat Capacity, Cp–Below PTT *

    1.90 J/g °C

  • Avg. Specific Heat Capacity, Cp—Above PPT*

    2.45 J/g °C

  • Avg. Thermal Conductivity, – Below PPT*

    0.35 W/m·k

  • Avg. Thermal Conductivity, – Above PPT*

    0.25 W/m·k

*Viscosity determined at 20°C above the transition temperature.

*Other phase transition temperatures up to 130°C are available.


*Similar to most solid and liquid materials, the specific heat capacity and thermal conductivity have insignificant change above and below the transition temperature


**Tested at 3 mm thickness 

LHS logo green

Revolutionizing Thermal Management