xHPTDC8-PCIe

xHPTDC8-PCIe

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

Description
Downloads
FAQ

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 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.

Like the xTDC4, the xHPTDC8e 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 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 that is fully controlled by the device, ensuring low CPU load at high data throughput.

Our timing generator 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.

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The xHPTDC8 time-to-digital converter is available as PCIe card ( xHPTDC8-PCIe ) or as an external desktop unit ( xHPTDC8-TBT ). The latter can be connected to any Thunderbolt port as standard to read out data. Contact us for various mounting options.
The occurring cycle-to-cycle jitter of the xHPTDC8 is significantly lower than the bin size of 13ps. Therefore you can expect an RMS error below 7ps for your measurements. Only 5 ns have to be between consecutive hits on the same input channel for them to be reliably recognized.

High precision

The occurring cycle-to-cycle jitter of the xHPTDC8 is significantly lower than the bin size of 13ps. Therefore you can expect an RMS error below 7ps for your measurements. Only 5 ns have to be between consecutive hits on the same input channel for them to be reliably recognized.
The threshold discriminators can use positive or negative thresholds with configurable voltage. This allows you to use the xHPTDC8 with a wide range of detectors, constant fraction discriminators (CFD), or signal standards in general.

Bipolar

The threshold discriminators can use positive or negative thresholds with configurable voltage. This allows you to use the xHPTDC8 with a wide range of detectors, constant fraction discriminators (CFD), or signal standards in general.
The LEMO-00 inputs of Channels A-H and TRG can be used to output periodic pulse patterns to control your experimental setup. The exact timing of these is measured by the TDC. For more flexibility and different applications, each TiGer block can be triggered by an arbitrary combination of inputs, including an auto-trigger.

TiGer timing generator

The LEMO-00 inputs of Channels A-H and TRG can be used to output periodic pulse patterns to control your experimental setup. The exact timing of these is measured by the TDC. For more flexibility and different applications, each TiGer block can be triggered by an arbitrary combination of inputs, including an auto-trigger.
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 mimics these modes. The grouping function of the xHPTDC8 enables you to define any channel as a trigger channel. Only hits arriving within a configurable time window around the trigger will be recorded.

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 mimics these modes. The grouping function of the xHPTDC8 enables you to define any channel as a trigger channel. Only hits arriving within a configurable time window around the trigger will be recorded.
The xHPTDC8 is equipped with an ADC that can be triggered in three ways: • Whenever there is an edge on the ADC trigger connector, the voltage on the ADC input connector is sampled. • By using the TiGer and the internal auto-triggeryou can sample an analog signal in defined intervals or in random periods. • By using the TiGer with triggers relative to a TDC input. A typical application would be to sample some slow control voltage once per start signal.

Voltage monitoring ADC

The xHPTDC8 is equipped with an ADC that can be triggered in three ways: • Whenever there is an edge on the ADC trigger connector, the voltage on the ADC input connector is sampled. • By using the TiGer and the internal auto-triggeryou can sample an analog signal in defined intervals or in random periods. • By using the TiGer with triggers relative to a TDC input. A typical application would be to sample some slow control voltage once per start signal.
With the xHPTDC8 you can block inputs from being measured for a certain period of time relative to an input pulse. This reduces buffering requirements and CPU load. You can decide for yourself whether you configure the timespan during which recording is enabled or during which recording is blocked.

Veto or gate inputs

With the xHPTDC8 you can block inputs from being measured for a certain period of time relative to an input pulse. This reduces buffering requirements and CPU load. You can decide for yourself whether you configure the timespan during which recording is enabled or during which recording is blocked.

xHPTDC8-PCIe

Technical Data

Optimized for
ADC channels
TDC channels
Gating channels
Connectors
Sample rate single channel
Sample rate multi channel
Resolution
Maximum bandwidth
TDC bin size
TDC double pulse resolution
Multihit
Dead time between groups
TDC readout rate
ADC readout rate
Timestamp range
Common start/stop
Number of boards that can be synced
Readout interface
Time base
On-board calibration data storage
Adjustable trigger windows
Overlapping events possible
Easy to use Windows C API
In-system firmware update
Linux support available
No items found.

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 (or connects to TBT)
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
No items found.

Ndigo Crate

Connection to host
Bandwidth to host
Performance relative to
10 Gbps Thunderbolt link
PCIe2 16x slots with 8 lanes
PCIe2 16x slots with 4 lanes
PCI slots 5 V, 32 bit, 33 MHz
PCI slots 3.3 V, 32 bit, 66 MHz
Cable and link boards
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 nearly 100 years of research, several challenging questions still remain open and are being investigated. Our TDCs are used 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

see also: spectral image acquisition, 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.

Here you find all current downloads for this product. Please contact us for further support on our ADCs and TDCs.

Frequently asked Questions

product choice

I have no idea whatsoever which unit is suitable for my application. Can you advise me on this?

We would be happy to assist you in selecting a board for your application.

For this purpose we need the following information:

How many measurement channels are needed?

What is the required time resolution?

Do you want to measure the area, intensity or shape of the pulse? Or is the time of occurrence sufficient?

Do you prefer a PCIe CEM card housed in a PC, or do you prefer an external device connected to a Thunderbolt / USB4 port?

Are you aiming for the most space-efficient data acquisition integration possible?

Regarding your timeframe, are you only interested in products that are available now, or are you also interested in upcoming products or custom solutions?

The best way would be for you to use one of our inquiry forms and fill it out completely.

TTL signals

Are cronologic TDCs able to generate TTL or similar signals to synchronize other devices such as lasers, switches, etc.?

All cronologic TDCs that have the "TiGer function" offer this option. You can find more detailed information on this in our user guide for the corresponding device.

specific connection formats

Are cronologic measurement boards also available with optical inputs, BNC/SMA or SMB connections or with additional converters?

For some of our major customers, we currently offer solutions with SMA connections as part of special developments. Depending on the desired measuring card, it might be quite easy to find such a solution for you as part of a custom design.

We can also implement other connection formats as part of custom designs for larger product volumes.

However, suitable adapter cables may also be available on the market.

Please let us know your exact requirements and the intended quantities so that we can take care of the matter.

PC configuration

Is there a recommended PC configuration for use with these measuring boards?

As virtually all reasonably up-to-date PCs will run with our measurement cards, we do not provide any explicit details in this regard. Writing the memory contents to your PC does not require particularly high performance. Rather, the performance requirements of the computer used are determined by the application software used.

size of jitter

What size is the jitter of the cronologic TDCs?

Jitter refers to the deviation in the time it takes for data to arrive at each time window. It is often assumed that the jitter is at the FWMH value of 2 bins. This is not the case with our TDCs, as here jitter is not the limiting factor. Double-pulse resolution, on the other hand, is an important specification for most applications and is the limiting factor in terms of resolution. However, this is not directly related to the jitter of our measurement cards, as the jitter of our TDCs is significantly smaller than the bin size. Accordingly, the RMS error is so small that we do not consider it to be significant.

See also: bin-size, jitter, and RMS

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input level

In which level should the signals I use range, which I feed to the inputs of the measuring cards?

Please refer first and foremost to our information in the User Guide for the respective product. The following technical specifications are subject to change without notice.

  • Our standard TDCs are AC coupled. The DC base line can be between 0V and 5V for these devices. Short positive and negative pulses with an amplitude of up to 5V can be processed. The discriminator threshold can be set between -1.32V and 1.18V relative to the DC baseline, with a step size of 40 µV. In general, the threshold voltage should be set well above the noise level of the input signal.
  • The inputs of our standard ADCs are AC-coupled single-ended analog inputs. The maximum input voltage is 0.5 V (Ndigo5G-10) or 1 V (Ndigo6G-12) and the input impedance is 50 Ω. The analog offset can be between -0.25 and +0.25 V (Ndigo5G-10) or -0.5 and +0.5 V (Ndigo6G-12).

xHPTDC8 dead time

What has to be considered regarding the dead time respectively the input frequency of the xHPTDC8-PCIe?

The term dead time refers to the time lag or time offset that can occur when measuring with a TDC. The dead time specified in the technical data of TDCs and the input frequency refer to the same parameter and are directly dependent on each other. An input frequency of 200 MHz, for example, corresponds to a double pulse resolution of 1/5 ns.

The extent to which this value is relevant for your measurement depends on the sensors used. Only in case the dead time of your sensors is extremely small and a high resolution is required, this value will be relevant for you.

The xHPTDC8-PCIe measures exclusively with a high resolution of 13 ps. In case incoming pulses are closer than 5 ns, only one pulse is detected.

constant fraction discriminator

Do the cronologic measurement cards offer an integrated CFD (Constant Fraction Discriminator)?

Since our measurement boards are designed for a wide range of applications, we do not integrate CFDs into our standard models. In principle, however, it is of course possible to operate our boards with external CFDs, which is also done by many of our customers. The threshold function (threshold comparator) is in most cases already sufficient to pre-sort the pulses on the input side. This is because the digital threshold is adjustable for each input and can alternatively be configured for positive or negative pulses. Please refer to the operating instructions for more information.

In case extremely high demands are made regarding the comparator, an external device may be used.

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TDC integration

How can I integrate cronologic TDCs into my measurement setup in a reasonable way?

With the TimeTaggers as an alternative to using the PCIe interfaces of our measurement cards is to integrate a TDC module. The TDC modules are connected to your circuit board via board-to-board connectors, using differential input signals for the analog front end you have developed. We will be happy to provide you with detailed information in this regard.

Alternatively, before purchasing an  xTDC4, xHPTDC8, or TimeTagger, you may wish to consider the “-TBT” device version, which enables data transfer via USB4 using conventional ThunderboltTM cables.

bin size, jitter and RMS

How are bin size, jitter and RMS error related?

The bin size, jitter, and RMS measurement error are all important parameters that play a role in the digital acquisition of time data.

  • The bin size refers to the width of the time windows into which the data is divided during the measurement. The smaller the bin size, the higher the temporal resolution of the measurement. However, if the bin size is too large, there may be an overlap of data between each time window, resulting in an inaccurate measurement.
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  • Jitter refers to the deviation in the time it takes for data to arrive at each time window. When jitter is high, data in a circuit can be erratic or inconsistent, resulting in an inaccurate measurement. Jitter is not directly related to bin size and therefore cannot be calculated directly from it. Jitter can be considered as the measure of the temporal variability of the acquired signal edges. There are TDCs on the market that offer good time resolution but have high jitter, so that the high time resolution initially impresses but is of no practical use. cronologic TDCs, on the other hand, have such a significantly low jitter that it can be safely ignored in relation to the bin size.
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  • The RMS measurement error refers to the average deviation between the actual values of the input data and the values generated by the measurement. The lower the RMS measurement error, the more accurate the measurement.

multiple TDC channels

How does the use of multiple input channels affect the performance of my TDC?

The data acquisition of our TDCs is based on PCIe DMA. Thereby the maximum utilization of the data rate will in some cases only be reached if solely one measuring channel is used. In our technical data you will find the readout rate, which describes the maximum value and also the readout rate for the use of individual channels.

You are welcome to explain your application to us in detail, so that we can work out together how you can exploit the performance of our product to the maximum.

TDC synchronization

How many cronologic TDCs can be operated synchronously?

Just like the predecessor model HPTDC8, the xHPTDC8-PCIe also provides the option of synchronization when using multiple TDCs. The sync can take place via a total of 24 channels. A 10 MHz signal is used for the synchronization. Other cronologic TDCs such as TDC modules or TimeTaggers currently do not offer a direct synchronization option.

pulse width measurement

Do TDCs only provide the arrival time of incoming pulses or also the pulse width?

Since the pulse amplitude is not measured when using TDCs, in many applications a derivation of the pulse intensity from the pulse width comes into question. In these cases, it may be useful to measure the pulse width as well as the arrival time of the pulse. For the acquisition of single photons, however, this is usually not necessary.

The measurement of pulse widths (i.e., a simultaneous measurement of falling and rising pulse edges) is feasible in most cases, but the specifics depend on the type of card in use.

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  • The cronologic TimeTaggers are optimally suited for capturing the arrival time in conjunction with the pulse width. They provide (if enabled) timestamps of both the rising and falling edges of the measured pulse. The time difference corresponds to the pulse width.
  • Pulse width measurement is also possible with the xTDC4-PCIe, though it is more involved.
  • The integrated TDCs of the Ndigo5G-10 and the Ndigo6G-12 are also capable of capturing both edges of the pulse.
  • The xHPTDC8-PCIe captures only one edge per pulse, so the pulse width cannot be obtained with this device.

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TiGer

What exactly is the function of the TiGer (timing generator)?

To use inputs to output arbitrary periodic pulse patterns for controlling your setup, you can write your own software that allows exact measurement of the timing of these patterns with the TDC. The TiGer can be used to measure exact timing differences between the generated output signals and various input signals on other channels. This is useful for a variety of applications.

The TiGer functionality can be configured independently for each port. Each TiGer may connect its output to the corresponding LEMO port. This turns the port into an output. The TiGer is DC-coupled to the connector. Connected hardware must not pass signals to the ports used as outputs, as this could damage both the TDC and the external hardware.

For this purpose, each digital LEMO-00 input can be used as an AC-coupled trigger output, whereby the TiGer functionality can be configured independently for each connection. This converts the relevant connection into an output. A bidirectional mode allows this output to be used consistently as a measurement channel if required. Unipolar or bipolar pulses may be used.

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firmware updates

Is it possible to update the firmware of my cronologic product by myself?

Yes, a corresponding program for updating the firmware is part of the driver package for our products.

Caution: Each firmware update requires a new calibration of the product using the provided calibration software. In some cases, it is necessary to provide appropriate input signals for this purpose.

driver download

Where can I find the appropriate driver for my cronologic product?

On the pages containing product information, there is a corresponding tab. Plus on this website, all downloads for our products are listed. This also applies to products that are no longer in our current range.

For Linux support please use this page.

Julia

Is it possible to use the cronologic DAQ products with Julia based software?

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We provide a C API that can be used to receive a stream of timestamps in almost any programming language. Histogramming and other analysis of the timestamps can be programmed by the user in a few lines of code.

We do not provide a separate interface to Julia. Basically, our drivers are intended to be used either directly in C/C++ programs or, when used in other languages, with a C/C++ wrapper that provides the driver's functions in the respective language and converts the data to the respective data format.

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LabView

Is it possible to use the cronologic DAQ products with LabView based software?

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We provide a C API that can be used to receive a stream of timestamps in almost any programming language. Histogramming and other analysis of the timestamps can be programmed by the user in a few lines of code.

We do not provide a separate interface to Lab View. Basically, our drivers are intended to be used either directly in C/C++ programs or, when used in other languages, with a C/C++ wrapper that provides the driver's functions in the respective language and converts the data to the respective data format.

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software integration

With the measurement cards, do you offer software that can display histograms, count rates, coincidences, etc. with controlled time windows such as counts/s or counts/ms?

No. As our customers' requirements for evaluation software are very application-specific, they prefer to program their evaluation software and are happy about the lower hardware costs. Histogramming and other analysis of the timestamps can be programmed by the user with a few lines of code. We provide a C API that can be used to receive a stream of timestamps in almost any programming language.

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In case you are active in research, e.g. in the field of atomic physics, we can put you in touch with partner companies that offer our products in a package with software packages.

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MATLAB

Is it possible to use the cronologic DAQ boards with MATLAB based software?

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We provide a C API that can be used to receive a stream of timestamps in almost any programming language. Histogramming and other analysis of the timestamps can be programmed by the user in a few lines of code.

We do not provide a separate interface to MATLAB. Basically, our drivers are intended to be used either directly in C/C++ programs or, when used in other languages, with a C/C++ wrapper that provides the driver's functions in the respective language and converts the data to the respective data format.

Matlab probably offers several ways to use C++ classes. This seems to be a viable way, although it is not trivial.

Another possibility is demonstrated here.

By the way: For basic applications that are rarely called, there is another way to solve the problem as the driver of our measuring cards offers a tool which records the data into a .csv file. This can then be analyzed in MatLab or also Excel. However, the amount of data generated is quite large, so you have to make sure in your own code that the data is really processed in real-time.

golang

Is it possible to use the cronologic DAQ produts with Go based software?

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We provide a C API that can be used to receive a stream of timestamps in almost any programming language. Histogramming and other analysis of the timestamps can be programmed by the user in a few lines of code.

We do not provide a separate interface to Go / Golang. Basically, our drivers are intended to be used either directly in C/C++ programs or, when used in other languages, with a C/C++ wrapper that provides the driver's functions in the respective language and converts the data to the respective data format.

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Rust

Is it possible to use the cronologic DAQ boards with Rust based software?

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We provide a C API that can be used to receive a stream of timestamps in almost any programming language. Histogramming and other analysis of the timestamps can be programmed by the user in a few lines of code.

We do not provide a separate interface to Rust. Basically, our drivers are intended to be used either directly in C/C++ programs or, when used in other languages, with a C/C++ wrapper that provides the driver's functions in the respective language and converts the data to the respective data format. Wolfgang Löffler has created Rust bindings for our drivers. He has published code on GitHub under the Mozilla Public License that shows how to use TimeTagger4 and HPTDC8 with Rust. It should be easy to port this code to the xTDC4 and xHPTDC8 in case.

Linux

How can I use cronologic hardware most efficiently in Linux environment?

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Our Linux-Supportweb page provides drivers and support for GNU/Linux based applications. ‍Please provide us with information about your application and the driver requirements for your Linux distribution and kernel version. Please note that only kernel versions from 5.0 (March 2019) are supported.

Python

Is it possible to use the cronologic DAQ boards with Python based software?

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We provide a C API that may be used to receive a stream of timestamps in almost any programming language. Histogramming and other analysis of the timestamps can be programmed by the user in a few lines of code.

In principle, the use of Python based software is possible along with wrappers. Our customers write their own wrappers suitable for their particular application. For example, there is a Python wrapper for the HPTDC8.

Regardless of this, Python has an abstraction layer above C and will therefore always be slower than C, no matter how sophisticated your code is. Depending on the application, this may result in limitations.

non-sequential signals

Are cronologic TDCs also able to detect non-sequential or non-synchronized signals (i.e. random or emission signals detected by SPAD and not triggered by pulsed excitation), or can these boards only detect synchronized signals with an external source such as a pulsed laser?

Yes, such signals can also be detected. If this is not desired, the config.tdc_mode parameter can be used to switch between grouped and continuous measurement.

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trigger

My product development respectively my experiment requires a trigger that I want to use as a start signal. Which TDC is best for me?

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In this case, we recommend one of our Common Start TDCs, such as the xTDC4, TDC modules or one of our TimeTaggers.

defense

The company I work for is also closely associated with suppliers operating in the defense sector, or we produce military products ourselves. Is cronologic willing to supply us?

As part of our own sales policy, we would like to ensure that our products are not used in weapons systems. If you are considering purchasing our ADCs or TDCs, please let us know how you can ensure that the use of our products for military purposes can be reliably excluded.

shipping insurance

Are the goods covered by insurance when they are shipped ?

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We ship fully covered unless you specifically tell us that you have your own insurance and therefore would not like us to do so.

shipments

How do we ship your goods?

As standard, we ship your goods via FedEx or UPS using your account. Thus you have full control over the shipping costs and can use your own conditions with the shipping company.

In case you do not have a FedEx or UPS account, we will ship your order via DHL-Express or our own UPS account and show the shipping costs separately on your invoice or within our offer. Please note that this procedure usually leads to significantly higher shipping costs. It is financially more worthwhile for you to open a new FedEx or UPS customer account - especially because you can then take advantage of the new customer offers of these shipping companies.

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reseller

We are resellers and need sufficient margin for our services. Can cronologic help us with this?

Yes, as a matter of principle, this is possible. In the run-up to our collaboration with companies that consider themselves resellers, we examine their business model in detail. This will take some time. Please provide us with comprehensive information about your company respectively your corporate group, your customers and the complete scope of your product range.

As a reseller, you provide us with the details of your respective customer (company, address, contact person, and area of responsibility) for each purchase. This means you can rest assured that we will only serve your customers via your account.


We receive forecasts of required items from all resellers several times a year. In most cases, it is sufficient for these forecasts to include the binding order quantity for the first six months and the planned purchase quantity for the next twelve months. The forecasts are then updated every six months. Goods ordered in advance are not covered by the agreement, nor are agreements made in the past.
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All agreements with our resellers relate exclusively to the delivery of goods and do not include freight costs, development services, or other services.

ordering process

How exactly does the ordering process work at cronologic?

  • Usually, you will receive an informal message from us in advance of your order with the current prices of the requested items. Please refer to the postscript of that message if you would like to receive an official quote.
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  • In case of interest, we will provide you with an official quote, in which any freight costs or insurance costs, etc. are also taken into account. If the desired item is in stock, we will schedule two weeks for final quality control, calibration, and preparation for dispatch.
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  • As soon as we have received your order, we will send you an order confirmation. The item is thereby reserved for you. Please note: We observe international embargoes concerning individual countries, institutions and persons and reserve the right to carry out an export assessment in advance for each individual order, which may delay or prevent the implementation of the delivery.
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  • In the next step, we carry out a final in-house check and calibrate the product.
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  • Your invoice will only be issued when the goods are dispatched and your payment term is 14 days as standard. Depending on the selected shipping method, payment is therefore also possible after receipt of the goods.
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  • You will receive your invoice by email and also with the shipment. Together with the invoice, you will receive the consignment note with the tracking number, which you can use to track the shipment if required.
  • Advice for urgent orders: Specifying the exact person who is to receive the goods can be helpful to ensure that the receipt of your goods is registered promptly. We will take this information into account when sending the goods.

formal quote

What do I need to do to get a formal quote?

Please provide us with the following information:

  • Details of the quantity of the desired cronologic products
  • if necessary, information about the desired delivery date
  • Your complete billing address and delivery address including the telephone number of your head office
  • If your billing address is in the European Union: Your VAT number
  • Your FedEx or UPS customer number. Please inform us immediately if you do not have one.
  • Information about your transport insurance. Please inform us immediately if you do not have one.

FCA incoterms

What does shipping to FCA Incoterms mean?

The International Commercial Terms are clauses for the interpretation of commercial contract standards. FCA (Free CArrier) is one of the clauses, which exclude the assumption of the costs for the main transport by the seller. In this case, cronologic takes over the handover to the carrier and, if necessary, also the customs declaration.

delivery restrictions

Are there any restrictions regarding the delivery of conologic products to certain countries?

Our ADCs are classified as so-called dual-use goods, as they could be used for military purposes in addition to civilian applications. TDCs and Crates are not affected by these restrictions.

Regardless of the fact that we at cronologic want to exclude the use of our products for military purposes, the laws of the EU and many other countries restrict exports. Since we have to apply for a General Export Permit for these countries, delivery processes may be delayed or delivery to certain countries may become impossible.

For the application of this export license we need the following documents from you:

  • Exporter declaration
  • Company profile
  • Gegbf. import license (country dependent)

There are countries for which a general export license can be used for the export of dual-use goods. In this case we need documents from you and there will be no further delay:

These include:

  • Australia
  • Japan
  • Canada
  • Liechtenstein
  • New Zealand
  • Norway
  • Switzerland
  • Singapore
  • USA

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goods dispatch

How long does it take to receive my ordered goods?

Provided that the ordered goods are products from our standard portfolio and are in stock, it can usually be assumed that the delivery will be dispatched within 14 days after receipt of the order. During this time, the item is subjected to a further detailed calibration and final inspection, packed and made ready for dispatch. Of course, it is always a requirement that all details regarding customs and shipping have been clarified in advance.

import permit

For which purpose is an import permit required and where can I get it?

Governments may impose certain restrictions on the imported goods as well as on their quantity. As a result, import licenses may be required. Such an import license is a document issued by a national government that allows certain goods to be imported into its territory. This is the international import document IC, which you may need to apply for at your customs office. Each import license specifies the quantity of imports allowed, and the total quantity allowed should not exceed the quota.

You need our export declaration to apply for an import permit.

Please find more information on the WTO website.