PACE Tallis transfer standard calibrator 10 ppm FS

from 14,993.00 €
plus VAT

Options & pricing

PACE Tallis enclosure when additionally purchasing one sensor: from €2,734.00

PACE Tallis enclosure when additionally purchasing two sensors: from €2,842.00

PACE Tallis enclosure when additionally purchasing three sensors: from €2,892.00

TRS3 and TRS3-B sensors: each €12,259.00


  • Total accuracy of 3 Pa / 0.03 mbar using Druck TERPS resonant silicon technology
  • Configurable for a wide range of applications with 1, 2, or 3 reference sensors from 200 kPa to 21.1 MPa
  • Comprehensive yet easy-to-use platform—from laboratory barometer to practical calibration standard
  • Compact, robust transfer standard ideal for on-site testing and interlaboratory comparisons
  • Versatile performance maintained over a wide range of environmental conditions and test media
  • Precision of 10 ppm Full Scale (FS)
  • Long-term stability up to 15 ppm Full Scale (FS) per year
  • Optional barometric reference available
Datasheet
User Manual
Videos

The PACE Tallis by Druck represents the latest generation of precision digital transfer standards, setting new benchmarks for accuracy, robustness, and versatility. Ideal for both in-situ testing and interlaboratory comparisons, this compact solution provides exceptional measurement stability and reliability.

Main Features:

  • Total accuracy of 3 Pa / 0.03 mbar utilizing Druck TERPS resonant silicon technology
  • Configurable with 1, 2, or 3 reference sensors covering ranges from 200 kPa up to 21.1 MPa
  • Full-featured, user-friendly platform suitable for laboratory barometry and calibration standards
  • Compact and robust, ideal for field use and safe transportation
  • Precision of 10 ppm Full Scale (FS)
  • Long-term stability up to 15 ppm FS per year
  • Optional barometric reference sensor available

Performance Advantages:

  • Minimizes user errors through automated measurement software
  • No effects from external variables such as local gravity or medium density
  • Easy setup and low maintenance—no piston cleaning required
  • Lower total cost of ownership and reduced calibration expenses
  • Minimal servicing requirements

Optional Features:

  • Leak Test: Automatic measurement of leak rates in selectable units (per second or minute)
  • Switch Test/Analogue Output: Automated pressure switch calibration and integration with external systems, programmable analogue outputs (0–10 V, 0–5 V, -5–5 V, 0/4–20 mA)
  • Switch Test/Volt-Free Contacts: Automatic control of peripheral devices such as vacuum pumps or ovens
  • Aeronautical Option: Calibration capability for aeronautical instruments with display units in feet, meters, knots, km/h, and Mach number

Applications:

  • Calibration laboratories and metrological institutes
  • On-site calibration in industry and aviation
  • Interlaboratory comparisons and proficiency testing
  • Reliable measurements in harsh environmental conditions

Benefits Over Traditional Systems (e.g., Deadweight Testers):

  • Automated procedures reducing user-induced errors
  • No influence from gravity or medium density variations
  • No complex maintenance requirements like piston cleaning
  • Lower operational costs and minimal servicing

The PACE Tallis provides unmatched precision, versatility, and ease of use, defining a new standard for modern pressure calibration solutions.

Deadweight Tester vs. Digital Pressure Gauge – Is It Time to Upgrade?

1. Why are deadweight testers (DWT) still used today?

Deadweight testers have been relied on for decades as highly accurate primary standards.
They provide exceptional metrological precision and are still widely used in laboratories
for reference calibrations—especially where the highest accuracy levels are required.

2. What disadvantages does a traditional DWT have in daily operation?

Using a DWT is often time-consuming and physically demanding. Weights must be manually placed
and changed, stabilization must be monitored, and operating errors—such as incorrect weight
combinations or piston friction—can easily occur.

3. What makes a digital pressure gauge (DPG) more attractive?

Digital pressure gauges work quickly, precisely, and conveniently. Pressure is measured
electronically and displayed instantly. This reduces operator error, shortens calibration
time, and greatly simplifies documentation.

4. Can a DPG really replace the accuracy of a DWT?

Modern digital reference gauges achieve accuracies down to ±0.01 % FS or better.
For industrial applications and factory calibrations, this is more than sufficient.
Many users keep their DWT as a top-level reference while using a digital device as
their everyday working standard.

5. Which common error sources can be avoided with a DPG?

Digital instruments eliminate errors caused by incorrect weights, piston friction,
contamination of hydraulic fluids, or reading inaccuracies. Temperature compensation
and automatic corrections ensure consistently reliable measurement results.

6. How does a digital pressure gauge improve daily work in the test field?

Calibration routines become faster, easier, and less prone to error. Serial tests can be
performed more efficiently—without heavy weights, manual mechanical adjustments, or long
stabilization times.

7. What does the transition mean for documentation and traceability?

Digital reference gauges enable simple, automated data handling. Readings can be saved,
exported, or integrated into calibration software—ideal for ISO 9001 compliance,
audits, and customer documentation.

8. Can the existing DWT still be used?

Yes. Many users keep their DWT as a laboratory or primary reference while implementing
a digital gauge as their daily working standard. This provides a combination of maximum
accuracy and optimal efficiency.

9. When is investing in a digital pressure gauge most beneficial?

Especially when performing frequent calibrations, working across multiple pressure ranges,
needing improved documentation, or wanting to reduce working time and error risk. Digital
gauges are ideal for test benches, workshops, and service applications.

10. What criteria are important when selecting a digital pressure gauge?

Key factors include pressure range, accuracy class, long-term stability, temperature limits,
media compatibility, and communication interfaces such as USB, RS-485, or Ethernet for
software integration and documentation.

Comparison: Deadweight Tester (DWT) vs. Digital Pressure Gauge (DPG)

Feature Deadweight Tester (DWT) Digital Pressure Gauge (DPG)
Measurement principle Weight force applied to a piston area Electronic pressure sensor with digital output
Accuracy level Very high, primary standard Very high, suitable for most industrial calibrations
Operating effort High – manual weights, stabilization required Low – connect, read, and document
Measurement time Longer, especially with multiple points Short, ideal for serial testing
Error susceptibility Friction, contamination, incorrect weights Low, automatic compensation
Ergonomics Heavy weights, physical strain Lightweight, compact, intuitive
Documentation Mainly manual Digital, exportable, software-compatible
Typical use Laboratory, primary/secondary standard Test bench, workshop, service

Would you like to reduce the workload on your deadweight tester or complement it with a digital
reference gauge? We are happy to support you with selection, integration, and documentation.

Technical Specifications:

Feature Specification
Pressure Ranges 200 kPa to 21.1 MPa (see table below)
Accuracy (Absolute Ranges) 2–211 bar: 0.0010% FS (includes linearity, hysteresis, repeatability, temperature effects)
Barometric Reference Range 750–1150 mbar absolute, precision: 0.020 mbar
Long-Term Stability 0.0015% FS per year (2–3.5 bar), 0.001% FS per 28 days (8–211 bar)
Display 4.3-inch VGA color touchscreen
Communication Interfaces RS232, USB, IEEE-488, Ethernet
Environmental Conditions Operating: 10–50 °C, Storage: -20–70 °C, Humidity: 5–95% RH
Dimensions (W x H x D) 218 mm x 88 mm x 250 mm (8.6 x 3.5 x 9.8 inches)
Weight 3.2 kg (excluding external PSU)

Available Pressure Ranges:

Range (bar) Range (psi) Range (kPa)
2 bar abs. 30 psi abs. 200 kPa abs.
3.5 bar abs. 50 psi abs. 350 kPa abs.
8 bar abs. 116 psi abs. 0.8 MPa abs.
21 bar abs. 304 psi abs. 2.1 MPa abs.
71 bar abs. 1029 psi abs. 7.1 MPa abs.
211 bar abs. 3060 psi abs. 21.1 MPa abs.


Technical advice: 03303 / 50 40 66

Technical advice for this product


    In accordance with the General Data Protection Regulation (GDPR), we are obliged to inform you about the collection of data. We meet this obligation by referring to our privacy notice.



    PACE Tallis transfer standard calibrator 10 ppm FS

    from 14,993.00 €
    plus VAT

    Options & pricing

    PACE Tallis enclosure when additionally purchasing one sensor: from €2,734.00

    PACE Tallis enclosure when additionally purchasing two sensors: from €2,842.00

    PACE Tallis enclosure when additionally purchasing three sensors: from €2,892.00

    TRS3 and TRS3-B sensors: each €12,259.00

    • Total accuracy of 3 Pa / 0.03 mbar using Druck TERPS resonant silicon technology
    • Configurable for a wide range of applications with 1, 2, or 3 reference sensors from 200 kPa to 21.1 MPa
    • Comprehensive yet easy-to-use platform—from laboratory barometer to practical calibration standard
    • Compact, robust transfer standard ideal for on-site testing and interlaboratory comparisons
    • Versatile performance maintained over a wide range of environmental conditions and test media
    • Precision of 10 ppm Full Scale (FS)
    • Long-term stability up to 15 ppm Full Scale (FS) per year
    • Optional barometric reference available
    Datasheet
    User Manual
    Videos

    The PACE Tallis by Druck represents the latest generation of precision digital transfer standards, setting new benchmarks for accuracy, robustness, and versatility. Ideal for both in-situ testing and interlaboratory comparisons, this compact solution provides exceptional measurement stability and reliability.

    Main Features:

    • Total accuracy of 3 Pa / 0.03 mbar utilizing Druck TERPS resonant silicon technology
    • Configurable with 1, 2, or 3 reference sensors covering ranges from 200 kPa up to 21.1 MPa
    • Full-featured, user-friendly platform suitable for laboratory barometry and calibration standards
    • Compact and robust, ideal for field use and safe transportation
    • Precision of 10 ppm Full Scale (FS)
    • Long-term stability up to 15 ppm FS per year
    • Optional barometric reference sensor available

    Performance Advantages:

    • Minimizes user errors through automated measurement software
    • No effects from external variables such as local gravity or medium density
    • Easy setup and low maintenance—no piston cleaning required
    • Lower total cost of ownership and reduced calibration expenses
    • Minimal servicing requirements

    Optional Features:

    • Leak Test: Automatic measurement of leak rates in selectable units (per second or minute)
    • Switch Test/Analogue Output: Automated pressure switch calibration and integration with external systems, programmable analogue outputs (0–10 V, 0–5 V, -5–5 V, 0/4–20 mA)
    • Switch Test/Volt-Free Contacts: Automatic control of peripheral devices such as vacuum pumps or ovens
    • Aeronautical Option: Calibration capability for aeronautical instruments with display units in feet, meters, knots, km/h, and Mach number

    Applications:

    • Calibration laboratories and metrological institutes
    • On-site calibration in industry and aviation
    • Interlaboratory comparisons and proficiency testing
    • Reliable measurements in harsh environmental conditions

    Benefits Over Traditional Systems (e.g., Deadweight Testers):

    • Automated procedures reducing user-induced errors
    • No influence from gravity or medium density variations
    • No complex maintenance requirements like piston cleaning
    • Lower operational costs and minimal servicing

    The PACE Tallis provides unmatched precision, versatility, and ease of use, defining a new standard for modern pressure calibration solutions.

    Deadweight Tester vs. Digital Pressure Gauge – Is It Time to Upgrade?

    1. Why are deadweight testers (DWT) still used today?

    Deadweight testers have been relied on for decades as highly accurate primary standards.
    They provide exceptional metrological precision and are still widely used in laboratories
    for reference calibrations—especially where the highest accuracy levels are required.

    2. What disadvantages does a traditional DWT have in daily operation?

    Using a DWT is often time-consuming and physically demanding. Weights must be manually placed
    and changed, stabilization must be monitored, and operating errors—such as incorrect weight
    combinations or piston friction—can easily occur.

    3. What makes a digital pressure gauge (DPG) more attractive?

    Digital pressure gauges work quickly, precisely, and conveniently. Pressure is measured
    electronically and displayed instantly. This reduces operator error, shortens calibration
    time, and greatly simplifies documentation.

    4. Can a DPG really replace the accuracy of a DWT?

    Modern digital reference gauges achieve accuracies down to ±0.01 % FS or better.
    For industrial applications and factory calibrations, this is more than sufficient.
    Many users keep their DWT as a top-level reference while using a digital device as
    their everyday working standard.

    5. Which common error sources can be avoided with a DPG?

    Digital instruments eliminate errors caused by incorrect weights, piston friction,
    contamination of hydraulic fluids, or reading inaccuracies. Temperature compensation
    and automatic corrections ensure consistently reliable measurement results.

    6. How does a digital pressure gauge improve daily work in the test field?

    Calibration routines become faster, easier, and less prone to error. Serial tests can be
    performed more efficiently—without heavy weights, manual mechanical adjustments, or long
    stabilization times.

    7. What does the transition mean for documentation and traceability?

    Digital reference gauges enable simple, automated data handling. Readings can be saved,
    exported, or integrated into calibration software—ideal for ISO 9001 compliance,
    audits, and customer documentation.

    8. Can the existing DWT still be used?

    Yes. Many users keep their DWT as a laboratory or primary reference while implementing
    a digital gauge as their daily working standard. This provides a combination of maximum
    accuracy and optimal efficiency.

    9. When is investing in a digital pressure gauge most beneficial?

    Especially when performing frequent calibrations, working across multiple pressure ranges,
    needing improved documentation, or wanting to reduce working time and error risk. Digital
    gauges are ideal for test benches, workshops, and service applications.

    10. What criteria are important when selecting a digital pressure gauge?

    Key factors include pressure range, accuracy class, long-term stability, temperature limits,
    media compatibility, and communication interfaces such as USB, RS-485, or Ethernet for
    software integration and documentation.

    Comparison: Deadweight Tester (DWT) vs. Digital Pressure Gauge (DPG)

    Feature Deadweight Tester (DWT) Digital Pressure Gauge (DPG)
    Measurement principle Weight force applied to a piston area Electronic pressure sensor with digital output
    Accuracy level Very high, primary standard Very high, suitable for most industrial calibrations
    Operating effort High – manual weights, stabilization required Low – connect, read, and document
    Measurement time Longer, especially with multiple points Short, ideal for serial testing
    Error susceptibility Friction, contamination, incorrect weights Low, automatic compensation
    Ergonomics Heavy weights, physical strain Lightweight, compact, intuitive
    Documentation Mainly manual Digital, exportable, software-compatible
    Typical use Laboratory, primary/secondary standard Test bench, workshop, service

    Would you like to reduce the workload on your deadweight tester or complement it with a digital
    reference gauge? We are happy to support you with selection, integration, and documentation.

    Technical Specifications:

    Feature Specification
    Pressure Ranges 200 kPa to 21.1 MPa (see table below)
    Accuracy (Absolute Ranges) 2–211 bar: 0.0010% FS (includes linearity, hysteresis, repeatability, temperature effects)
    Barometric Reference Range 750–1150 mbar absolute, precision: 0.020 mbar
    Long-Term Stability 0.0015% FS per year (2–3.5 bar), 0.001% FS per 28 days (8–211 bar)
    Display 4.3-inch VGA color touchscreen
    Communication Interfaces RS232, USB, IEEE-488, Ethernet
    Environmental Conditions Operating: 10–50 °C, Storage: -20–70 °C, Humidity: 5–95% RH
    Dimensions (W x H x D) 218 mm x 88 mm x 250 mm (8.6 x 3.5 x 9.8 inches)
    Weight 3.2 kg (excluding external PSU)

    Available Pressure Ranges:

    Range (bar) Range (psi) Range (kPa)
    2 bar abs. 30 psi abs. 200 kPa abs.
    3.5 bar abs. 50 psi abs. 350 kPa abs.
    8 bar abs. 116 psi abs. 0.8 MPa abs.
    21 bar abs. 304 psi abs. 2.1 MPa abs.
    71 bar abs. 1029 psi abs. 7.1 MPa abs.
    211 bar abs. 3060 psi abs. 21.1 MPa abs.


    Technical advice: 03303 / 50 40 66

    Technical advice for this product


      In accordance with the General Data Protection Regulation (GDPR), we are obliged to inform you about the collection of data. We meet this obligation by referring to our privacy notice.



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