Maximize the Impact ofYour ZEISS X-ray DataZEISS Advanced Reconstruction Toolbox
Your software for advanced image processing of X-ray data
zeiss.com/art

Revolutionize Your 3D X-ray Image Reconstruction.
› In Brief› The Advantages› The Applications› The System› Technology and Details› ServiceZEISS Advanced Reconstruction Toolbox (ART) is an innovative platform throughwhich you can continuously access state-of-the-art reconstruction technologies
from ZEISS to enrich your research and increase the return on investment of your
3D X-ray microscope (XRM) and microCT (µCT). These unique offerings leverage
artificial intelligence and a deep understanding of both X-ray physics and customer
applications to solve some of the hardest imaging challenges in new andinnovative ways.
Optional ART modules are workstation- and cloud-based solutions that provide
easy access and usability.

100 µm

100 µmStandard reconstruction (FDK): Scan time 9 hrs (3001 projections)Standard reconstruction (FDK): Scan time 53 mins (301 projections)

Ceramic matrix composite imaged in 3D with ZEISS Xradia
620 Versa XRM. Courtesy of Dr. David Marshall, University ofColorado, Boulder, USA

100 µmZEISS DeepRecon Pro: Scan time 53 mins (301 projections)ZEISS DeepRecon Pro used for throughput improvement for ceramic matrix composite (CMC) sample, achieving 10× throughput improvement without sacrificing image quality. This would allow for much higher
temporal resolution for in situ studies.

2Innovative. Flexible. Ground-breaking.

› In Brief› The Advantages› The Applications› The System› Technology and Details› Service

The Latest Innovations at Your Fingertips

Advanced Image Reconstruction

Expand Your Research Goals with AI

ART for ZEISS XRM and microCT enables you

Image reconstruction technologies enhanceContinued algorithmic innovation into accelerate productivity in ways never before

3D X-ray results, enabling you to address​:

3D X-ray microscopy reconstruction benefits

possible. With continuous delivery of ground-many different application areas, enabling

breaking innovation in 3D X-ray microscopy• Resolution​, contrast​, and image quality​

you to harvest the hidden data in your X-ray

via a variety of image and data processing• Throughput

acquisitions. These technologies, incorporating

enhancements, ART meets you where you• Diverse sample types, sizes, and shapes​

artificial intelligence, dramatically reduceare. ART is available on a high-performance• Artifact reduction

your time to result and bring entirely new

dedicated workstation, via time-based licensing

capabilities to your research, allowing you

for project-oriented teams, and in the cloud

These capabilities support the study of

to build a new understanding of the complex

to provide researchers with ultimate flexibility.

samples in the fields of materials science,

processes taking place. Ultimately, thesebattery research, advanced electronics, life

innovations can improve the statisticalsciences, semiconductors, natural resources,

significance of your research and experiments

and many more while accommodatingand enable you to maximize the impact of

the novice to most expert users throughthe data you collect. Advancements in AI

an easy-to-use interface.

bring new insight across materials and life
sciences research and accelerate the paceof development for engineering newmaterials with enhanced properties.

3

Your Insight into the Technology Behind It› In Brief› The Advantages› The Applications› The System› Technology and Details› Service

Computational Imaging

However, the relatively low brilliance of laboratory

3D X-ray microscopy is a computational imaging

X-ray sources coupled with the relative inefficiency

technique where a series of many hundreds toof X-ray detectors create a high degree of noise

thousands of projections are reconstructed andin detected images, especially at high resolution.

synthesized into a volumetric representation

On top of this noise issue, images are often

of your sample.

subject to sampling or aliasing artifacts that arise
from a limited number of projections used for

X-ray microscopy presents unique opportunities

reconstruction. This is particularly an issue when

but also presents significant challenges. Its non-performing high-resolution interior tomographies

invasive nature allows for the high-resolution

on large samples.

imaging of deeply buried materials withoutcausing damage or requiring destructive sample

ART techniques integrate computational imaging

preparation.

at the heart of X-ray microscopy to open up
transformative new capabilities.
3D mage of 21700 battery scanned by ZEISS Xradia 620 Versaab

100 µmc

100 µm

100 µmComparison between standard analytical reconstruction and AI-based reconstruction using DeepRecon Pro on a 21700 cylindrical lithium-ion battery. (a) Standard analytical reconstruction output for an
11-hour scan time. (b) Standard analytical reconstruction output for a 1.4-hour scan time. Significant artifacts appear near the battery perimeter, as highlighted in the white oval. (c) AI-based reconstruction
algorithm output for the same 1.4-hour scan, allowing for 8x faster scanning with comparable image quality to the original 11-hour scan.

4

Your Insight into the Technology Behind It› In Brief› The Advantages› The Applications› The System› Technology and Details› Service

Field of View vs. Resolution
Another challenge inherent to all microstructuraland zoom techniques, however, these workflows

imaging techniques, but felt particularly acutely

still do not break the relationship between

in X-ray imaging, is the relationship between

resolution and field of view.

resolution and field of view. Often the highresolution required to image fundamental

ART offers a novel X-ray reconstruction capability

structural details comes at the expense of thethat couples the multiscale data uniquely available

field of view that is representative of sample

in X-ray microscopy with advanced machine

heterogeneity, leading to uncertainties in thelearning to explicitly learn and remove relative

resulting interpretation. Significant progress

image point spread functions (PSF) even on very

has been made over the past several years inlarge field of view data. This allows for high-the development of workflows allowing forresolution imaging to be performed without athe integration of multiscale data via scout

significant trade-off with respect to field of view.

Low resolution scan
0.53 µm/voxel

High resolution scan
0.26 µm/voxel

Segmented 3D rendering of pouch cell battery scanned by
ZEISS Xradia 620 Versa. From left to right: cathode current
collector (blue), cathode particles (pink), polymer separator
membrane (light green), graphite anode particles (dark green),
anode current collector (gold).

DeepScout volume0.26 µm/voxel

100 µmPouch cell battery: initially capture at a low-resolution sample scan, scout to a smaller region to perform a high-resolution scan. Train the AI network on your data, and then apply to the low-resolution data to achieve highresolution across a larger field of view.

5Expand Your Possibilities› In Brief› The Advantages› The Applications› The System› Technology and Details› Service

DeepRecon Pro
ZEISS DeepRecon Pro is an innovative AI-based
technology that brings superior throughput andimage quality benefits across a wide range ofapplications. It uniquely harvests the hidden
opportunities in big data generated by your
XRM or microCT and provides significant
AI-driven speed or image quality improvement.
DeepRecon Pro is applicable to both uniquesamples as well as semi-repetitive and repetitive
workflows. Users can self-train new machinelearning network models with an extremelyStandard reconstructionZEISS DeepRecon Pro

In this submicron image of a zebrafish showing standard FDK reconstruction, above left, the DeepRecon Pro image, above right, shows
significant improvement with less noise and more features. Courtesy Prof. Dr. Bert Müller, University of Basel, Switzerlandeasy-to-use interface. The one-click workflow
of DeepRecon Pro eliminates the need for amachine learning expert and can be seamlessly
operated by even novice users.
DeepRecon Pro is offered as part of the AI
Supercharger and Recon packages for the
Advanced Reconstruction Toolbox and isalso available via the cloud.
10 µm
Standard reconstruction

10 µm
ZEISS DeepRecon Pro

fcBGA Flip Chip sample imaged with ZEISS Xradia Ultra. Standard FBP reconstruction (above left) 64 nm/voxel scan: 1000 projections at 18
hours.
Compare this to DeepRecon Pro reconstruction (above right) using 250 projections in a 4.5-hour scan resulting in better image quality and
4X throughput improvement.

6

Expand Your Possibilities› In Brief› The Advantages› The Applications› The System› Technology and Details› Service

DeepScout
ZEISS DeepScout uses high-resolution 3D
microscopy datasets as training data for lower
resolution, larger field of view datasets andupscales the larger volume data employing aneural network model. Leveraging the unique XRM
Scout-and-Zoom capability, DeepScout generates
multiscale, spatially registered datasets to train
neural networks, providing richer information at
higher resolution, including for interior tomographies for large samples.
These new capabilities, fueled by deep learning,

100 µmPolymer electrolyte fuel cell (PEFC) membrane electrode assembly imaged without ZEISS DeepScout.

mitigate the traditional trade-off between field ofview and resolution. This allows you to identify
spatially unconnected regions for further analysis
without the need to image the entire sample inhigh resolution.
After training your network, feed your large
volume overview scan through the Deep-Scout
reconstruction algorithm, and obtain resolutionthat approaches the resolution of a Zoom scan,but over a much larger field of view.
DeepScout is offered as part of the AI Supercharger
package for the Advanced Reconstruction Toolbox
and is also available via the cloud.

100 µmZEISS DeepScout: Acquire high resolution data across entire sample image for a clear view of critical microstructural features that
influence water formation and fuel cell performance.

7

Expand Your Possibilities› In Brief› The Advantages› The Applications› The System› Technology and Details› Service

PhaseEvolveZEISS PhaseEvolve is a patented* post-processing
reconstruction algorithm that enhances theimage contrast by revealing material contrast
uniquely inherent to X-ray microscopy, which
can often be obscured by phase effects in
low-medium density samples or high-resolution
datasets. Perform more accurate quantitative
analysis with improved contrast and segmentation of your results.
PhaseEvolve is offered as part of the Artifact
Reduction package for the Advanced Reconstruction Toolbox and is also available via the cloud.
* Patent US11645792B2

2793

Lactose carrier powder scanned with ZEISS Xradia 620 Versa
to observe particles nondestructively in 3D.

65535

100 µm

17751

41599

Comparing standard FDK reconstruction before and after applying PhaseEvolve: a pharmaceutical sample consisting of large lactose carrier particles and smaller (< 1 µm) active pharmaceutical ingredient (API) particles. The image on the left is without PhaseEvolve processing; image on the right is with PhaseEvolve. Histograms show the distribution of intensities in the images. Left, all phases are convoluted,
making it difficult to segment the image. Right, the histogram shows well-differentiated phases with PhaseEvolve, as seen in the two
distinct peaks.

8

Expand Your Possibilities› In Brief› The Advantages› The Applications› The System› Technology and Details› Service

Materials Aware Reconstruction
Solution (MARS)ZEISS MARS is a reconstruction algorithm that isaware of the constituents within a reconstruction.
A challenge in X-ray reconstruction in a lab settingis that imaging with a polychromatic source
creates different X-ray energies to generate aphenomenon called beam hardening. This effectis particularly challenging when your material isvery dense and embedded in a relatively less densematerial. The MARS advanced correction algorithm informs the system how to compensate
for the effect of extreme beam hardening in theregions between very dense objects.
This is important in applications like biomaterials,
where you might be looking at implants next tobone or tissue. Or electronics where extremely
dense solder balls appear next to other less densematerials on a printed circuit board, generatingstrong artifacts. MARS reconstructs your images
to compensate for these effects.

1 mm

1 mm

MARS artifact reduction around implant into bones. Metal implant in bone without MARS (left) casts artifacts directly around the implant,
and with MARS (right) demonstrates little to no artifact around the implant.

Materials Aware Reconstruction Solution is partof the Artifact Reduction package of ART.

9

Expand Your Possibilities› In Brief› The Advantages› The Applications› The System› Technology and Details› Service

OptiRecon
ZEISS OptiRecon is fast and efficient algorithmbased technology that delivers iterative reconstruction from your desktop, allowing you toachieve up to 4× faster scan times or enhanced
image quality with equivalent throughput.
OptiRecon is an economical solution offeringsuperior image quality or faster throughput
on a broad class of samples.
OptiRecon bonds with DeepRecon to create
the Recon package of ART.

500 µm500 µm18650 battery: Standard reconstruction – 6000 projections vs. OptiRecon – 1500 projections.
4X throughput improvement with equivalent image quality.

1 mm
18650 Li ion battery, interesting for its applications in the automotive industry and mobile consumer devices. Internal tomography reveals
detail of the electrode level structure, including aging effects, foreign particles, and cracks. Imaged with ZEISS Xradia 620 Versa.

10

ZEISS DeepRecon Pro at Work› In Brief› The Advantages› The Applications› The System› Technology and Details› Service

100 µmImaging of A12 bump for failure analysis with standard FDK
generates noise that obscures the severity of the internal
defects of this sample.

1 mmMouse lung imaged with Xradia Versa. Sample is iodine stained
and captured with 3001 projections. Reconstruction done using
traditional FDK.

100 µmDeepRecon Pro enables high quality datasets for true visualizationof the internal defects of this solder bump, without the noise
shown in the standard FDK reconstruction.

Winchcombe meteorite. Segmentation following deeplearning-assisted reconstruction with DeepRecon Pro allowed
clasts (green) and matrix (pale blue) to be separated. Sulfide
and oxide minerals (orange-red) were also characterized using
3D automated mineralogy with ZEISS Mineralogic 3D.

1 mm
Reconstruction done using DeepRecon Pro, showing improved
image quality compared to FDK.

Winchcombe meteorite. DeepRecon Pro enhances the ability to
distinguish similar mineral phases, enabling size, distribution,and shape analysis of clasts that give insights into collisional
processes happening on the initial parental body from which
the meteorite originated.

11

ZEISS DeepRecon Pro Ultra at Work› In Brief

Standard

15 hours; 18 minutes

2 hours; 39 minutes

2 hours; 5 minutes

16 minutes

DeepRecon Pro Ultra
15 hours; 18 minutes

2 hours; 39 minutes

2 hours; 5 minutes

16 minutes› The Advantages› The Applications› The System› Technology and Details› Service

Battery cathode layer scanned with ZEISS Xradia Ultra, nanoscale XRM, comparing standard FDK and DeepRecon Pro for both image quality and throughput (time to information).
Bin 1, at 64 nm voxel size (left two columns), shows DeepRecon Pro is 6X faster, and Bin 2, at 128 nm voxel size (right two columns), is 8X faster, bringing an Ultra XRM into new avenues of research. Field ofview is 65 µm in each frame.
Each reconstruction model has been "self-trained," using its own data, as part of the Image Quality Improvement DeepRecon Pro workflow. No prior data or scan has been used for model training.

12

ZEISS DeepRecon Pro at Work› In Brief› The Advantages› The Applications› The System› Technology and Details› Service

100 µmStandard reconstruction: 1601 projections

100 µmDeepRecon Pro: 1601 projections

10 mm

10 mm

Blended Portland cement with residual blast furnace slag particles. Comparison between standard FDK(left) and DeepRecon Pro (right) demonstrates de-noising and image quality improvement in DeepRecon Pro data.

100 µm

100 µmStandard reconstruction: 401 projections

100 µmDeepRecon Pro: 401 projections

Additively manufactured Inconel lattice. ART with DeepRecon Pro demonstrates better image quality
at same number of projections, and also at 4X throughput improvement. Sample courtesy of Kavan
Hazeli, Mechanical and Aerospace Engineering, The University of Alabama, Huntsville, AB USA.

10 mm

100 µm10 mm

Geopolymer with an encapsulated particle of Fe-rich sludge waste embedded in an otherwisefeatureless geopolymer matrix. It was difficult not only to identify these grains but also to determine arobust shape analysis using FDK reconstruction alone, but much smaller Fe-rich grains can be observedin DeepRecon Pro data, which would have otherwise been obscured by noise, within the “featureless”
geopolymer matrix.

13

ZEISS DeepScout at Work› In Brief› The Advantages› The Applications› The System› Technology and Details› Service

270 µm270 µmSoybean flower. Left, imaged with standard FDK. Right, imaged with DeepScout. Reduced noise and higher resolution at field of view reveal additional cellular structure.
Sample courtesy of Keith Duncan, Donald Danforth Plant Science Center, Missouri, USA

14

ZEISS DeepScout at Work› In Brief› The Advantages› The Applications› The System› Technology and Details› Service

1 mm
1 mm
Cropped large field of view scan, 10 µm/voxel

1 mm
1 mm
High resolution scan, 2.1 µm/voxel

1 mm
ZEISS DeepScout restored volume, 2.1 µm/voxel

ZEISS DeepScout enables high resolution everywhere in a large FOV volume with no need for numerous high resolution scans. The DeepScout example shown above took only 3 hours in data acquisition, achievinga large and high resolution volume that would require at least 81 hours with standard data acquisition. The DeepScout images clearly show fatigue solder cracks in a commercial A12 smartphone control board,
with the image quality comparable to the actual high-resolution scan.

600 µmThe single full field of view DeepScout scan was generated in 1.6 hours. A single high resolution scan took 2.5 hours. It would require 27 high-resolution scans, or 67.5 hours, to achieve the same volume of data as the
DeepScout scan. This provides the ability to drastically reduce the time taken to identify critical regions of interest in large samples for future study.

Advanced Reconstruction Toolbox (ART) leverages game-changing artificial intelligence (AI) for reconstruction. ZEISS DeepScout uses
high-resolution 3D microscopy datasets as training data for lower resolution, larger field-of-view datasets, and upscales the larger
volume data using a trained model. This A12 chip package measures approximately 20 mm wide.

15

ZEISS DeepScout at Work› In Brief

CAI› The Advantages

Chondrule 1› The Applications› The System
Chondrule 2› Technology and Details› Service

1 mmAllende meteorite: 3D sub-sample locations

Chondrule 2

1 mm
Dolerite concrete. Upscaling of internal 4× region of interest (ROI) 5 μm voxel size scan data to larger field of view 0.4x 28 μm voxel
size scan. Internal tomography of targeted ROI scan shown in bright colors at left. Using DeepScout improves the contrast between
different constituents, the visibility and identification of small grains within the matrix, and the outline and features within highdensity grains.

5 mm core of the Allende meteorite. Sample has
been scanned using ZEISS Xradia 620 Versa XRM
at a 5 µm voxel size and upscaled to a 2 µm voxel
resolution using deep learning-powered DeepScout.
Individual mineral elements have been segmented
using ORS Dragonfly Pro software.

16

ZEISS PhaseEvolve at Work› In Brief› The Advantages› The Applications› The System› Technology and Details› Service

100 µm

100 µm

100 µmStandard reconstruction: 24 hours

DeepRecon Pro: 24 hours

PhaseEvolve + DeepRecon Pro: 24 hours

Deformable suction cup organ of the Dipteran fly Hapalothrix
lugubris, reconstructed with standard FDK.

Using DeepRecon Pro for visualization, image quality is greatly
enhanced and simultaneously delivers reduced noise.

By combining with PhaseEvolve, contrast across the entire
structure is maintained, facilitating segmentation to determine
structural functionality of the system.

100 µmLow absorbing hydrogel sample imaged at high resolution of
0.3 µm/voxel. Phase contrast brings out the walls of the hydrogel,but it is challenging to gauge the wall thickness accurately.
Data processed with PhaseEvolve (right) shows a more accurate
representation of the actual wall thickness. Field of view is 300 µm.

Low absorbing poplar wood requiring phase contrast imaging
to resolve smaller microstructural features. 2D reconstructedslice shows regions of wood cell walls with grey values similar
to the air in the center of the cells. Field of view is 600 µm.

100 µm
Improvements after PhaseEvolve processing now enable easy
segmentation and view of wood cell walls.

17

ZEISS Materials Aware Reconstruction Solution at Work› In Brief› The Advantages› The Applications› The System› Technology and Details› Service

1 mm
HDMI connector imaged at 160 kV HE 18, reconstruction without
MARS shows streaks, dark bands. Field of view is 14 mm.

1 mm
With MARS: important data is easier to discern without artifacts. Additionally, less filtering equals faster imaging.

100 µm
2.5D Interposer semiconductor package imaged at 0.7 µm/voxel
using at 80 kV LE2 without MARS shows metal streaking.

100 µmMARS reduces artifacts.

1 mm
Smartphone camera lens optics imaged at 7.5 µm/voxel using
150 kV HE2 shows metal artifacts.

1 mm
Reduced artifacts with MARS correction.

18

ZEISS OptiRecon at Work› In Brief› The Advantages› The Applications› The System› Technology and Details› Service

1 mm

1 mm

1 mm
Standard reconstruction: Scan time 90 minutes (1200 projections)Standard reconstruction: Scan time 22 minutes (300 projections)

OptiRecon: Scan time 22 minutes (300 projections)Observe the performance of ZEISS OptiRecon in a workflow performed on an electronics sample. Analyze integration issues in a smart phone camera lens, 4× faster with less noise than FDK using ZEISS OptiRecon.

100 µm

135 µm
FDK reconstruction: 400 projections

OptiRecon: 400 projections

Virtual slices extracted from FDK and iterative reconstruction of a mining sample.

FDK reconstruction: 8 hours (801 projections)

100 µmOptiRecon: 4 hours (400 projections)

3D XRM virtual cross-section images of a 2.5D package from ZEISS Xradia Versa 3D X-ray microscope.
ZEISS OptiRecon reconstruction demonstrates 2X faster scans with excellent image quality of solder
defects and cracks.

19Architecture That Leads to Flexibility & Accessibility› In Brief› The Advantages› The Applications

ART Cloud Setup

Access to ART: Meeting You
Where You Are
Unique ART architecture provides you with
options and flexibility that suit your working

Local Area Network (LAN)conditions.

› The System› Technology and Details› Service

Workstation: Access ART on a robust
high-performance workstation, dedicatedhardware with your choice of perpetual

ART Client
Scout-and-Scan Reconstructor
User Interface

ART Cloud Server
Back-end Computation
Hosted by Microsoft Azure Cloud

ART Workstation Setup

license and/or time-based licensing for all
modules. This is your choice for the fastest
processing of data for the full ART suiteof capabilities.

Local Area Network (LAN)Cloud: You can also access several ART
modules via the cloud. Cloud access includes
multi-seat setups with multiple access points
without the need to make a capital investment.
This provides access to the widest range ofusers with time-to-data based on your own
IT infrastructure. The software you subscribe to is

ART Client
Scout-and-Scan Reconstructor
User Interface

ART Workstation Server
Back-end Computation
Installed ZEISS High-performance WS

ZEISS ReconServer architecture provides up to three client seats per license in both Workstation- and Cloud-based setups.
This enables access via the high-performance workstation (if applicable), other workstations (including on the instrument),
or a laptop for remote working. Time-limited (1 year) licenses OR perpetual licenses are available on the workstation.
Only time-limited (1 year) licenses are available on the cloud. Note: MARS & OptiRecon are NOT cloud compatible.

always up-to-date. And we ensure your data
is secure.
models. This is ideal when you have project-based

Work with your ZEISS representative to meet you

Time-based Licensing: The ReconServer

work for which you may not need a perpetual

where you are today and to determine the bestarchitecture supports time-based licensing forlicense. You can easily upgrade your time-based

solution, or combination of solutions, for yourboth Workstation- and Cloud-based accesslicense to a perpetual license if you determine

short and long-term needs.

this is the best structure for your requirements.

20

Your Flexible Choice of Components

DeepRecon Pro

DeepScout

PhaseEvolve

MARS

OpticRecon

Versa

•

•

•

•

•

› The Applications

Context, Crystal CT

•

•

•

•

•

› The System

Ultra

•
•

•

› In Brief› The Advantages

System› Technology and Details

High-performance Workstation with perpetual
licenses and/or time-based licenses

•

•

•

› Service

Cloud with time-based licenses only

•

•

•

AI Supercharger••

Artifact Reduction

		 •Recon Package•				•

Premium ART•

Packages

•

•

•

•

•

21

Stateless Processing for Maximum Security› In Brief› The Advantages› The Applications› The System› Technology and Details› Service

Cloud Security

2 Data is encrypted andsent to the cloud serverYour data, powering your experiences,
is controlled by you. You have full control

3 Data is decrypted
and processed,
models trained, andvolumes reconstructedin the cloud server

over sharing your data, results, and training
models with your peers and collaborators.
Your data is secured during processing andwhile in transit.

1 Raw projection data
is loaded and parameters
are adjusted by the user

The core privacy principle from ZEISS is thatyou own your data. We fully respect your intel-

6 Automatic data purgeon completion ofdata transfer

lectual property rights, and the confidentialityof your data is our top priority. Therefore,
access to cloud-based virtual machines isrestricted to only select members of the ZEISS
Research Microscopy Solutions Support andOperations team for support purposes only.
ZEISS uses Microsoft Azure for its cloud network.
Each Azure geography contains one or more

ART Client
5 Reconstructed volumes
are received and readyto analyze by the user

ART in the Cloud
Server

4 Data is encrypted and sent
back to the ART client

regions and meets specific data residency andcompliance requirements, letting you keep
your business-critical data and apps nearby

Stateless process for data security. Your data is secured during processing and while in transit. All data uploaded belongs to you andyour organization only and you can feel confident about where your data is sent and how it is processed.

on fault-tolerant, high-capacity networking
infrastructure.

22

ZEISS Customer Portal:
Your One-Stop Resource for ART in the Cloud› In Brief› The Advantages› The Applications› The System› Technology and Details› Service

Getting Started is as Easy as 1-2-3
With your activation key, visit the ZEISS Portal
to access your trial license.
The ART subscription window provides everything
you need to rapidly engage in your trial, fromregistering your location to downloading thevirtual machine.
ZEISS Academy provides demos and tutorials to
help you make the most of your trial as quickly as
possible.
To request a trial license, contact your ZEISS
sales representative.

23

Technical Specifications› In Brief› The Advantages

Protocols

HTTPS, secure WebSocket and encrypted data

Port

80

Certifications of Microsoft Azure

ISO 27001, HIPAA, FedRAMP, SOC1 and SOC2

› The Applications

Connection security

RSA 2048 and AES 256-bit encryption + TLS 1.3› The System

Connection

RJ 45 connector for LAN (preferred) or Wi-Fi

Security patched and measured according to your local IT security standards

YES

Established and working outbound internet connection

YES (recommended 100 Mbps minimum upload and download speed for optimal experience)› Technology and Details› Service24

ZEISS Service – Your Partner at All Times

Your microscope system from ZEISS is one of your most important tools. For over 175 years, the ZEISS brandand our experience have stood for reliable equipment with a long life in the field of microscopy. You cancount on superior service and support - before and after installation. Our skilled ZEISS service team makes› In Brief

sure that your microscope is always ready for use.

› The Advantages

Procurement› The Applications› The System› Technology and Details› Service

Operation• Lab Planning & Construction Site Management• Predictive Service Remote Monitoring• Site Inspection & Environmental Analysis• Inspection & Preventive Maintenance• GMP-Qualification IQ/OQ• Software Maintenance Agreements• Installation & Handover• Operation & Application Training• IT Integration Support• Expert Phone & Remote Support• Startup Training• Protect Service Agreements• Metrological Calibration• Instrument Relocation• Consumables• Repairs

New Investment

Retrofit• Decommissioning• Customized Engineering• Trade In• Upgrades & Modernization• Customized Workflows via ZEISS arivis Cloud

Please note: Availability of services depends on product line and location>> www.zeiss.com/microservice

25

Carl Zeiss Microscopy GmbH07745 Jena, Germany
microscopy@zeiss.com
www.zeiss.com/art
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EN_44_011_107 | Release 1.1 | CZ 01/2024 | Design, scope of delivery, and technical progress subject to change without notice. | © Carl Zeiss Microscopy GmbHNot for therapeutic use, treatment or medical diagnostic evidence. Not all products are available in every country. Contact your local ZEISS representative for more information.