MetalJet F1016

Introducing MetalJet F1016

Brighter. Faster. Smarter.

Sharpen your focus. Accelerate your throughput.

The next generation of high-performance microfocus X-ray sources is here. The result of twenty years of integrated innovations, MetalJet F combines unparalleled speed, precision and versatility to meet the highest demands of cutting-edge research and high-throughput industrial inspection. Among a series of advanced integrated technologies, the new MetalJet F platform combines the world’s first high-pressure electromagnetic pump with significantly extended cathode lifetime to enable new levels of non-stop operation.

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Accelerate industrial inspection

Enable sub-second in-line CT scanning. And ensure unprecedented yield in battery inspection. At 160 kV, the industry-leading MetalJet F1016 achieves the world’s fastest CT scanning with micrometer resolution – now in a more compact, integrated format designed for 24/7 throughput.

Expand the horizons of scientific discovery

Measure smaller crystals. Perform ultra-fast micro XRF mapping. And explore new frontiers in materials science and biomedical imaging. Reengineered with insights from more than 200 MetalJet systems worldwide, the new MetalJet F series pushes the limits of research to offer higher resolution, faster scan times and more flux than any other microfocus X-ray source available in a home lab.

Sharpen your focus

MetalJet F brings even higher power to the world’s brightest microfocus X-ray source. Add to this an innovative pump design with zero moving parts, fewer electronic components and automatic cathode alignment, and the result is an entirely new platform designed to get more pioneering work done, every day.

Features & benefits

  • Extreme microfocus power
    • Up to 27x higher Bremsstrahlung than conventional microfocus X-ray source
    • More than 6x power compared to MetalJet D2+
    • 1.6x higher power than MetalJet E1+
  • Increased brightness and radiant flux for:
    • Higher scan speed with maintained signal to noise and resolution
    • Increase signal to noise at maintained measurement time
  • Simplified and robust design for 24/7 industrial use
    • Higher uptime and lower cost of ownership
    • Very long life-time LaB6 cathodes
  • New maintenance free liquid metal pump
    • X-ray source with 24/7 full-power availability
    • Very stable X-ray emission and spot position
  • Short target to object distance
    • Close coupling of optics or sample
  • Flexible exit window
    • Right, left or dual port operation
  • Superior spot quality
    • Optimal imaging resolution
    • Excellent beam generation with optics
  • Selection of available target materials
    • Characteristic emission from Gallium (9.2 keV) or Indium (24 keV)
  • GUI with error guidance
    • Easy and quick trouble shooting
    • Possibility for remote connection and support
  • ISO 13849-1 compliant
    • Tested and documented in accordance with standard for easy certification of integrated system

Smart solutions

  • High-pressure electromagnetic jet pump – a silent, maintenance-free innovation delivering the highest liquid alloy speeds for unmatched power and flux in MetalJet sources.
  • Permanent Performance Technology – the next generation electron beam control that both keeps spot size preserved and extends cathode lifetime.
  • Dual port option – enabling two independent X-ray beams from a single source for enhanced flexibility and efficiency.
  • Self-heated window – a simplistic and low-maintenance design utilizing surplus electrons to heat exit windows, eliminating alloy vapor build-up for maximum reliability.

Technical specifications

Target material1

Liquid metal alloy

Min. focal spot size3

< 10 μm

Target type

Liquid jet

Emission stability4

< 1%

Voltage

30-160 kV

Position stability4

< 1 μm

Power2

0-1600 W

Min. focus-object distance

17.4 mm

Max current

10 mA

Beam angle

30°

1) The alloys supplied for the MetalJet source consist mainly of Gallium, Indium and Tin and are in liquid state in room temperature or near room temperature. They have low reactivity and low toxicity but should be handled according to their safety data sheets and local regulations.
2) The actual power used is dependent on spot-size and voltage. However, maximum output power of the 160 kV high-voltage generators is 2000 W, software limited to 1600 W.
3) Dependent on configuration.
4) Standard deviation.

Available target alloys

Target alloy

Gallium
[weight %]

Indium
[weight %]

Tin
[weight %]

ExAlloy-G1


95

5

-

ExAlloy-I1

68

22

10

ExAlloy-I25

47

37

16

ExAlloy-I3

75

25

-

5) Operation of ExAlloy-I2 requires that the MetalJet F source is equipped with a heater system to manage the alloy temperature.

The source consists of the head, the pump system, a high voltage generator and a cooling system as shown in the picture. The coupling is semi-rigid, allowing some movement of the source head. Sources operating with ExAlloy-I2 are equipped with heater jackets around parts in the alloy recirculation loop (not shown).

The source can be remotely operated through TCP/IP or directly through the GUI. The GUI can be operated on the source itself if it is equipped with monitor, keyboard and mouse, or on most computer platforms with a TCP/IP connection to the source.

The MetalJet source is intended to be incorporated into or assembled with other components such as radiation enclosures, safety systems and radiation detectors.

For more information about the full scope of configurability, please contact us.

Mains: AC, single phase, 200-240 V, 2.6 kW-3.5 kW (depending on configuration), 50/60 Hz.

Ambient: 20-30 °C (stable within ± 0.5 °C for optimal source stability), max 85 % relative humidity.

1) Source head 2) Jet pump module 3) Chiller 4) Power module 5) High voltage generator.
The picture shows an installation example including racks and monitor (not included in delivery).

Technical specifications

Target material1

Liquid metal alloy

Min. focal spot size3

< 10 μm

Target type

Liquid jet

Emission stability4

< 1%

Voltage

30-160 kV

Position stability4

< 1 μm

Power2

0-1600 W

Min. focus-object distance

17.4 mm

Max current

10 mA

Beam angle

30°

1) The alloys supplied for the MetalJet source consist mainly of Gallium, Indium and Tin and are in liquid state in room temperature or near room temperature. They have low reactivity and low toxicity but should be handled according to their safety data sheets and local regulations.
2) The actual power used is dependent on spot-size and voltage. However, maximum output power of the 160 kV high-voltage generators is 2000 W, software limited to 1600 W.
3) Dependent on configuration.
4) Standard deviation.

Available target alloys

Target alloy

Gallium
[weight %]

Indium
[weight %]

Tin
[weight %]

ExAlloy-G1


95

5

-

ExAlloy-I1

68

22

10

ExAlloy-I25

47

37

16

ExAlloy-I3

75

25

-

5) Operation of ExAlloy-I2 requires that the MetalJet F source is equipped with a heater system to manage the alloy temperature.

The source consists of the head, the pump system, a high voltage generator and a cooling system as shown in the picture. The coupling is semi-rigid, allowing some movement of the source head. Sources operating with ExAlloy-I2 are equipped with heater jackets around parts in the alloy recirculation loop (not shown).

The source can be remotely operated through TCP/IP or directly through the GUI. The GUI can be operated on the source itself if it is equipped with monitor, keyboard and mouse, or on most computer platforms with a TCP/IP connection to the source.

The MetalJet source is intended to be incorporated into or assembled with other components such as radiation enclosures, safety systems and radiation detectors.

For more information about the full scope of configurability, please contact us.

Mains: AC, single phase, 200-240 V, 2.6 kW-3.5 kW (depending on configuration), 50/60 Hz.

Ambient: 20-30 °C (stable within ± 0.5 °C for optimal source stability), max 85 % relative humidity.

1) Source head 2) Jet pump module 3) Chiller 4) Power module 5) High voltage generator.
The picture shows an installation example including racks and monitor (not included in delivery).

Performance examples5

Jet material

Acceleration voltage 
[kV]

Nominal X-ray spot size6[µm]

E-beam power 
[W]

Peak brightness[photons/(s mm2 mrad2)]

Radiant flux[photons/(s mrad2)]

ExAlloy-G1

160

30

1600

7.7×1010

7.5x107

ExAlloy-I1

160

30

1600

4.3×1010

4.0×107

ExAlloy-I2

160

30

1600

2.3x1010

2.1x107

Jet material

Acceleration voltage 
[kV]

Nominal X-ray spot size6[µm]

E-beam power 
[W]

Peak brightness[photons/(s mm2mrad2)]

Radiant flux[photons/(s mrad2)]

ExAlloy-G1

160

30

1600

6.3x1010

6.0x107

ExAlloy-I1

160

30

1600

3.3x1010

3.0x107

ExAlloy-I2

160

30

1600

1.6x1010

1.4 x107

Jet material

Acceleration voltage 
[kV]

Nominal X-ray spot size6[µm]

E-beam power 
[W]

Peak brightness[photons/(s mm2 mrad2)]

Radiant flux[photons/(s mrad2)]

ExAlloy-G1

160

30

1600

1.2×1010

1.2×107

ExAlloy-I1

160

30

1600

2.3×1010

2.1×107

ExAlloy-I2

160

30

1600

2.7×1010

2.6×107

Jet material

Acceleration voltage 
[kV]

Nominal X-ray spot size6[µm]

E-beam power 
[W]

Peak brightness[photons/(s mm2 mrad2)]

Radiant flux[photons/(s mrad2)]

ExAlloy-G1

160

30

1600

1.4×109

1.4×106

ExAlloy-I1

160

30

1600

5.4×109

5.2×106

ExAlloy-I2

160

30

1600

8.3×109

7.9×106

Jet material

Acceleration voltage 
[kV]

Nominal X-ray spot size6[µm]

E-beam power 
[W]

Peak brightness[photons/(s mm2 mrad2)]

Radiant flux[photons/(s mrad2)]

ExAlloy-G1

160

30

1600

1.4×1010

1.4×107

ExAlloy-I1

160

30

1600

1.7x1010

1.5x107

ExAlloy-I2

160

30

1600

1.5x1010

1.3x107

Jet material

Acceleration voltage 
[kV]

Nominal X-ray spot size6[µm]

E-beam power 
[W]

Peak brightness [photons/(s mm2 mrad2)]

Radiant flux[photons/(s mrad2)]

ExAlloy-G1

160

30

1600

1.3×1010

9.1×106

ExAlloy-I1

160

30

1600

1.6x1010

1.1x107

ExAlloy-I2

160

30

1600

1.6x1010

1.0x107

5) Examples are based on simulations that typically correspond well to experimental validation. Please contact us for details on such simulations vs. experiment validations including experimental method.
6) The spot size is measured as the full width at half maximum (FWHM) of the X-ray intensity distribution integrated in the horizontal and vertical directions respectively. The X-ray spots are realized by various degrees of e-beam line focus with a maximum aspect ratio of 6:1. Actual spot size may differ depending on viewing angle and may have different width and height. Please contact us for more details. 

Product specification

MetalJet F1016

Video

Introducing MetalJet F1016

Brochure

The MetalJet technology

More information

MetalJet F1016 news announcement
Safety and compliance
Scientific publications & more

Related products

MetalJet E1+
MetalJet D2+
MetalJet C2
MetalJet with optics
User stories

Experiences with the Excillum MetalJet X-ray sources

Learn about some of our customers’ experiences with our state-of-the-art X-ray sources.

Questions about our products?
Speak to our experts

We have a growing organization and a network of partners with the capabilities and expertise to maximize the benefits of our technology in your application.

Ask an expert

Emil Espes, M.Sc.

Business Development, Imaging

Some industries & markets using MetalJet F

 

Battery inspection

Semiconductor & electronics manufacturing

Biomedical research

Customer service

Our MetalJet and NanoTube X-ray sources are designed to ensure the highest levels of performance and reliability. Whenever regular maintenance, troubleshooting or optimization are required, our team of highly experienced engineers is available to provide worldwide service and support. We also offer a wide range of preventive maintenance and troubleshooting programs to ensure that every customer achieves the highest uptime and trouble-free operation.

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