xHPTDC8-PCIe

xHPTDC8-PCIe

xHPTDC8-PCIe: 8-channel time-to-digital converter / time tagging device

The xHPTDC8-PCIe is our most versatile TDC. This is the ideal time-to-digital converter for an infinite stream of time stamps.

Don't restrict yourself to classic common-start configurations! With the xHPTDC8-PCIe time interval analyzer, you can easily set up custom trigger scenarios. The device provides an infinite stream of timestamps - one for each input pulse. You may filter the stream in your own DAQ-software - or make use of the trigger and grouping features provided by xHPTDC8-PCIe.

Like the xTDC4-PCIe, the xHPTDC8-PCIe provides very high-precision measurements with almost no cycle-to-cycle jitter. From this time interval meter, you can expect an RMS error that is very close to the quantization error. Its linearity is also practically perfect!

The inputs accept a wide range of single-ended signaling standards including NIM, TTL, and CMOS.

The PCIe bus master accesses directly a buffer on the host PC, ensuring low CPU load at high data throughput.

Our timing genrator allows you to create digital output pulse patterns on all connectors to control the timing of your experiment.

The newly added 18-bit ADC can monitor an analog voltage in your system in sync with the data acquisition or controlled by an external trigger.

cronologic will support you with drivers for Windows and Linux.

The occurring cycle-to-cycle jitter of the xHPTDC8-PCIe is much lower than the bin size of 13ps. Therefore you can expect an RMS error below 7ps for your measurements.

High precision

The occurring cycle-to-cycle jitter of the xHPTDC8-PCIe is much lower than the bin size of 13ps. Therefore you can expect an RMS error below 7ps for your measurements.
The threshold discriminators can use positive or negative threshold with configurable voltage. This allows you to use the xHPTDC8-PCIe with a wide range of detectors, constant fraction discriminators (CFD) or signal standards in general.

Bipolar

The threshold discriminators can use positive or negative threshold with configurable voltage. This allows you to use the xHPTDC8-PCIe with a wide range of detectors, constant fraction discriminators (CFD) or signal standards in general.
The inputs can also be used to output periodic pulse patterns to control your experimental setup. The exact timing of these is measured by the TDC.

TiGer timing generator

The inputs can also be used to output periodic pulse patterns to control your experimental setup. The exact timing of these is measured by the TDC.
There is no limit to the acquired time interval with this TDC! It will output an infinite stream of timestamps for all incoming pulses. In case you prefer common start or common stop the device can output structured data that mimic these modes.

Versatile trigger windows

There is no limit to the acquired time interval with this TDC! It will output an infinite stream of timestamps for all incoming pulses. In case you prefer common start or common stop the device can output structured data that mimic these modes.
Measure the amplitude of a static analog input signal at defined time intervals or triggered by an external signal.

Voltage monitoring ADC

Measure the amplitude of a static analog input signal at defined time intervals or triggered by an external signal.
You can block inputs from being measured for a certain period relative to other input pulses. This reduces buffering requirements and CPU load.

Veto or gate inputs

You can block inputs from being measured for a certain period relative to other input pulses. This reduces buffering requirements and CPU load.

xHPTDC8-PCIe

Data

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xHPTDC8-PCIe

- Data

Optimized for
flexibility + performance
8
event triggered ADC
10x LEMO 00
13 ps
5 ns
unlimited
none
30 MHits/s total; 11.6 MHits/s per channel
unlimited
yes / yes
6
PCIe x1 @ 200 MB/s
10 ppb on board
TDC channels
Additional inputs
Connectors
bin size
Double pulse resolution
Multihit
Dead time between groups
Readout rate
Timestamp range
Common start/stop
Number of boards that can be synced
Readout interface
Time base
Linux support available
yes
low cost

Ndigo Crates

Our Ndigo Crates allow for using up to 8 PCIe-boards with a conventional PC. The external chassis is connected employing a  PCIe2 x16-interface.
Crate5
Crate3
Crate
PCIe3 x16
8 GByte/s
16x
2
3
2
0
included
PCIe3 x16
8 GByte/s
16x
2
3
0
2
included
PCIe2 x16
8 GByte/s
8x
0
8
0
0
included

Applications:

Quantum Sensing

see also: quantum metrology
Quantum sensing is an overall term that encompasses techniques and methods that use quantum mechanical phenomena to make precise measurements of physical quantities. Thereby, quantum mechanical states and effects are used to improve the measurement accuracy beyond the limits of classical sensors.

TOF mass spectrometry

ToF- & MASS- spectroscopy detectors, TOFMS
In many ToF-MS units cronologic TDCs are used to measure precisely the arrival of single ions. From the arrival time, the ion’s time-of-flight is deduced, from which the mass-to-charge ratio of the detected particle can be determined.

Time Domain Reflectometry

TDR, distance-to-fault, DTF
TDR (Time Domain Reflectometry) is an electronic measurement method that measures reflections along a conductor. It belongs to the category of Distance-to-Fault (DTF) measurements. TDR measurements provide meaningful information about the broadband behavior of transmission systems.

Time-of-Flight Secondary Ion Mass Spectrometry

TOF-SIMS (Time-of-Flight Secondary Ion Mass Spectrometry) is a high-resolution, if required, imaging analysis method for characterizing solid surfaces.

fluorescence lifetime correlation spectroscopy

FLCS, FCS, fluorescence lifetime correlation spectroscopy
Fluorescence-correlation-spectroscopy is a highly sensitive optical measurement method. Fluctuations in the fluorescence emission intensity over time are recorded, which are caused by individual fluorophores that pass through the detection volume.

low-energy nuclear physics

LENP in nuclear astrophysics (NAP), cosmology and astronomy
While many aspects of nuclear physics are considered well understood after almost 100 years of research, several challenging questions are still open and under investigation. Our TDCs are used in gas detectors for nuclear physics experiments helping to understand the microcosm of the nucleus.

neutron detectors

Neutron detectors are not only used in the in area of radiation safety, e.g. in reactor instrumentation or special nuclear material (SNM) detection. They are as well employed in fusion plasma physics, particle physics, materials science, and even cosmic ray detection.

quantum research

Quantum research affects many areas of modern science: quantum cryptography, quantum information science, quantum encryption, quantum key distribution (QKD), quantum electro dynamics (QED), quantum computing etc.
Quantum phenomena such as superposition, uncertainty, and entanglement are studied in quantum research with the goal that they can be safely fabricated when needed and made useful in various disciplines.

spectral imaging

spectral image acquisition, X-ray, radiology, photon-counting computed tomography, microscopy, hyperspectral imaging
The currently most advanced spectral imaging technique is based on single photon-counting detectors. Such detectors typically require precise timing measurements and corresponding applications strongly benefit from fast data acquisition electronics.

Frequently asked Questions