MetalJet E1 160 kV
Boundaries are meant to be pushed

Introducing MetalJet E1 160 kV.
Get 10 to 70 times more flux than with conventional X-ray sources

At 700 watts, the new MetalJet E1 delivers 10 times more X-ray flux across a broad spectral range compared to a 30 W conventional tungsten-solid-anode microfocus source with the same 30 µm spot size. In the spectral range of 24-29 keV where the indium and tin characteristic emission lines are present, the flux advantage is as high as 70 times.

Built for 24/7 continuous performance
The MetalJet E1 is designed for high-throughput industrial operations with more than 6-month preventive maintenance cycles. This eliminates the need for frequent filament changes as required by conventional tubes.

Sub-µm positional stability
Although running at a high thermal load of 700 W, the MetalJet E1 maintains a positional stability of below 1 µm during continuous long-term operation.

Unprecedented 24 keV indium Kα emission
For applications requiring focused or collimated high-energy monochromatic radiation, the MetalJet E1 delivers unprecedented power into the 24 keV indium Kα emission lines. See e.g. the 1.9×1010 ph/s/mm2 example when combined with Montel-type focusing X-ray mirror.

Features and benefits

  • Extreme microfocus source power
  • Superior spot quality
  • Single (left or right) X-ray window or dual (left and right)
  • Minimal maintenance
  • User variable size and aspect ratio of spot
  • LaB6 long-life cathode
  • Very stable X-ray emission and spot position
  • User-friendly Graphical User Interface
  • Controlled through GUI or TCP/IP protocol
  • Adjustable take-off angle
  • No external cooling water requirement
  • Operated remotely from any computer

Technical specifications

Target material1 Liquid metal alloy Min. focal spot size < 10 μm
Target type Liquid jet Emission stability3 < 1%
Voltage 30-160 kV Position stability3 < 1 μm
Power2 0-700 W Min. focus-object distance 22.5 mm
Max current 4.4 mA Beam angle 20°

Available target alloys

Target alloy Gallium
[weight %]
Indium
[weight %]
Tin
[weight %]
ExAlloy-G14 95 5  –
ExAlloy-I1 68 22 10
ExAlloy-I24 47 37 16
ExAlloy-I34 75 25  –

1) The room temperature liquid metal alloys supplied for the MetalJet source consist mainly of gallium, indium and tin. 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 limited to 700 W.
3) Standard deviation.
4) Operation of ExAlloy-G1, ExAlloy-I2 and ExAlloy-I3 requires that the MetalJet E1 source is equipped with a heater system to manage the alloy temperature.

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-I2 160 30 700 1.4×1010 1.3×107
160 25 570 2.2×1010 1.1×107
120 20 380 2.5×1010 8.8×106
70 20 250 1.7×1010 6.5×106
70 10 150 3.3×1010 4.4×106
ExAlloy-G1 160 30 700 3.8×1010 3.9×107
160 25 570 5.6×1010 3.4×107
120 20 380
70 20 250 4.1×1010 1.4×107
70 10 150 7.1×1010 9.6×106

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 degree of e-beam line focus with a maximum aspect ratio of 4:1. Actual spot size may differ depending on viewing angle and may have different width and height. Please contact us for more details. 

Characteristics

Installation and operation

The source consists of the head and the pump system with dimensions shown in the drawing. The head must be mounted essentially straight above the pump system. The coupling is semi-rigid, allowing some movement of the source head. Sources operating with ExAlloy G1, ExAlloy-I2 and ExAlloy-I3 are equipped with heater jackets around parts in the alloy recirculation loop (not shown in the drawing).

In addition, the MetalJet E1 160 kV consists of several 19” rack mounted parts that can be mounted up to 4 m from the head and pump system.

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 source cannot be operated as a standalone unit and must be integrated into a system providing the proper interlock connections.

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.

Safety and compliance

Excillum’s X-ray sources are compliant with the Machinery Directive 2006/42/EC, RoHS Directive 2011/65/EU and Low Voltage Directive 2014/35/EU. Excillum’s X-ray sources are a sub-assembly and therefore excluded from the EMC Directive 2014/30/EU, hence also conform to the definition of partly completed machinery and so should not be CE marked. Our X-ray sources are intended for system integration into customer equipment. The system integrator is solely responsible for final certification and safety compliance. X-rays emitted from the source are harmful for the human body and it is the sole responsibility of the system integrator to comply with all regulations and to protect all personnel during operation. The X-ray source may be subject to local government radiation hazard regulations.

Data sheet

Brochure

Some MetalJet E1 160 kV application areas

Contact us about our products

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.

Related products

Related user stories

Max Planck Institute

X-ray Emission Spectroscopy (XES)

CSIRO

High-definition X-ray fluorescence imaging

Monash University

X-ray phase-contrast imaging

Meiji University

Hard X-ray Photoelectron Spectroscopy (HAXPES)

University of Basel

Small molecule crystallography

Aarhus University

Small Angle X-ray Scattering (SAXS)
Menu

By continuing to use the site, you agree to the use of cookies. more information

The cookie settings on this website are set to "allow cookies" to give you the best browsing experience possible. If you continue to use this website without changing your cookie settings or you click "Accept", you are consenting to this.

Close