Datasheet
BATTERAY™ ZETA is a proven industrial X-ray and AI-powered battery sorting system designed for high-speed separation of mixed loose portable batteries into defined chemistry fractions. By analyzing internal battery construction and material-related characteristics rather than relying on external labels, the system supports reliable chemistry identification even when markings are missing, damaged, or unreadable.
Designed for modern battery recycling operations, BATTERAY™ ZETA combines high-speed automated sorting, high-purity output fractions, and configurable sorting programs. It helps recyclers reduce manual chemistry identification, limit cross-contamination between battery groups, and prepare cleaner, more consistent material streams for downstream recycling and recovery.
Built on proven BATTERAY X-ray sorting technology, ZETA reflects engineering developments informed by real industrial experience. Operation at European recycling facilities has driven improvements in material handling, recognition algorithms, software, and integration into automated production lines.
Key Advantages
- Internal X-ray chemistry recognition without dependence on readable external labels
- High-speed automated sorting of mixed portable battery streams
- Cleaner output fractions for downstream recycling and material recovery
- Advanced Ni-Cd / Ni-MH separation through a dedicated second-pass sorting program
- Industrial adaptability through configurable software, material handling, and plant integration
- Reduced manual identification and improved control over battery sorting operations
Reference Industrial Performance
| Sorting speed | Up to 23,000 batteries/hour |
| Nominal throughput | 350–400 kg/hour |
| Alkaline / ZnC output purity | 99.5% |
| Ni-Cd / Ni-MH output purity | Over 98% with validated dedicated sorting |
| Other supported groups | Over 95% reference output purity |
BATTERAY™ ZETA operates as a standalone industrial sorting system or serves as the proven chemistry-sorting core of the BATTERAY Platform™. This modular approach allows battery preprocessing workflows to be configured around the customer’s actual material stream, required output fractions, existing production equipment, and future recycling needs.
X-Ray Battery Sorting Technology
BATTERAY™ ZETA uses high-resolution X-ray inspection to examine the internal structure of individual batteries. X-ray images provide information about component arrangement, internal geometry, and material-related characteristics that can help distinguish chemical groups even when batteries share similar external shapes or markings.
AI-based recognition interprets this information according to the active sorting program. Supported batteries are assigned to designated chemistry groups, while uncertain or unsupported objects can be directed to a separate review or residual route. Classification results are translated into controlled pneumatic sorting actions, producing defined output fractions rather than simply identifying objects on the conveyor.
This approach is particularly valuable for mixed recycling streams containing visually similar, corroded, unmarked, or moderately damaged batteries within validated operating conditions. For a detailed explanation of the technology, visit X-ray Battery Sorting Technology.
Dedicated Ni-Cd / Ni-MH Separation
Nickel-cadmium and nickel-metal hydride batteries may look similar but require different downstream recycling processes. Their reliable separation is therefore important for reducing cross-contamination and improving the quality of recovered material fractions.
BATTERAY™ ZETA supports additional sorting of a previously separated mixed Ni-Cd / Ni-MH fraction. During a dedicated second X-ray sorting pass, a specialized recognition program separates supported nickel-cadmium and nickel-metal hydride batteries into individual output streams.
Reference output purity exceeds 98% for supported battery types under validated conditions. The separation program, applicable formats, and achievable output quality are confirmed according to the customer’s material stream and sorting requirements.
Refined Through Real Industrial Experience
BATTERAY technology has evolved through practical experience at European battery recycling facilities. Real production conditions have provided engineering feedback that has helped improve not only chemistry recognition, but also material handling, maintenance, industrial automation, and process integration.
Germany — Industrial Plant Integration. At a recycling installation in Germany, BATTERAY equipment was integrated into an existing automated sorting line. Plant-control functions, software, safety settings, and operating parameters were adapted to the facility’s production requirements. This demonstrated how X-ray battery sorting can function as an integrated stage of a larger industrial recycling process.
Netherlands — Challenging Battery Streams. At a recycling facility in the Netherlands, incoming material included heavily deformed batteries, attached wires, contacts, and foreign objects. Engineering improvements included modified conveyor components to help reduce blockages and simplify cleaning, together with additional X-ray / AI recognition algorithms for supported damaged and wire-containing batteries.
These developments reflect an engineering approach shaped by actual customer requirements. The improvements were implemented in specific industrial projects; their availability and performance in new BATTERAY™ ZETA installations depend on the selected configuration and application validation.
Software & Industrial Integration
BATTERAY™ ZETA combines AI-based chemistry recognition with software tools for automated sorting control, production monitoring, and application-specific configuration. The system can be adapted to coordinate with existing recycling infrastructure and plant automation requirements.
- AI-based X-ray recognition and configurable battery chemistry sorting programs
- Battery recognition database supporting application-specific classification requirements
- Production statistics, operating information, and diagnostic error logging
- Supervised automatic operation with operator monitoring and process control
- Industrial communication interfaces and plant-level integration where specified
- Customer-specific material handling and sorted-battery discharge arrangements
- Software and recognition improvements developed from field operating experience
Process Overview
Step 1 — Feeding and Preparation. Prepared loose batteries are loaded into the hopper and transferred through the conveyor system. Small debris, dust, broken battery parts, and unsuitable miniature objects can be separated from the main stream according to the configured feeding arrangement.
Step 2 — X-Ray Inspection. Individual batteries move along the orientation conveyor and pass through the inspection area. High-resolution X-ray imaging captures internal structural and material-related information for subsequent chemistry identification.
Step 3 — AI Classification. Intelligent recognition algorithms analyze the X-ray data and assign supported batteries to the appropriate chemistry groups according to the selected sorting program and validated recognition parameters.
Step 4 — Controlled Sorting. Pneumatic ejectors direct identified batteries into designated collection fractions. Batteries that cannot be reliably classified or sorted follow an agreed residual, review, or re-sorting route.
Input Material & Performance Conditions
BATTERAY™ ZETA is designed for prepared streams of individual portable batteries. Standard feeding requirements address battery condition, contamination, foreign objects, and attached components. Processing of damaged, non-standard, or challenging materials must be evaluated according to the selected equipment configuration and validated operating conditions.
Reference throughput and output purity depend on battery composition, size distribution, physical condition, feed preparation, sorting programs, and system configuration. Purity values describe the quality of sorted output fractions rather than overall recognition accuracy. Actual performance and supported functions are confirmed in the applicable technical proposal.
For more detailed information about supported battery formats, sorting programs, and specialized lithium classification developments, visit the BATTERAY ZETA Series website.
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Supported Battery Chemistry Groups
BATTERAY™ ZETA supports X-ray / AI recognition and sorting of major portable battery chemistry groups:
- Zinc-Carbon (ZnC)
- Alkaline (Alk)
- Nickel-Cadmium (Ni-Cd)
- Nickel-Metal Hydride (Ni-MH)
- Primary Lithium (Li-Primary)
- Lithium-Ion (Li-Ion)
Supported primary lithium subtypes may include Lithium Thionyl Chloride (Li-SOCl₂), Lithium Manganese Dioxide (Li-MnO₂), and Lithium Iron Disulfide (Li-FeS₂), depending on the selected sorting program and validated battery formats.
Ni-Cd and Ni-MH batteries may initially be collected as a combined nickel fraction, with separate output streams produced through a dedicated second sorting pass where validated. The number of recognized chemical categories does not necessarily correspond to the number of simultaneously separated physical outputs.
Classification Structure
The classification structure illustrates supported battery chemistry groups and sorting pathways. Actual output allocation depends on the selected program, battery formats, and validated configuration, including additional sorting stages where required.
Sorting Programs & Output Routes
| Main chemistry sorting | Automated separation into defined output fractions |
| Nickel fraction re-sorting | Dedicated second pass for Ni-Cd / Ni-MH separation |
| Primary lithium subtypes | Program- and format-dependent classification |
| Uncertain or unsupported objects | Designated review or residual route |
| Output configuration | Up to 6 sorting groups per session with 6 pneumatic ejectors |
For the detailed Sort Map showing supported battery sizes and chemistry combinations, visit the BATTERAY ZETA Series website.
Key features
AI-Powered X-Ray Recognition
BATTERAY™ ZETA analyzes internal battery construction and material-related X-ray features using AI-based recognition, enabling chemistry identification without relying on readable labels or external appearance.
Advanced Ni-Cd / Ni-MH Separation
A dedicated second X-ray sorting pass enables separation of mixed nickel-based fractions into Ni-Cd and Ni-MH streams, reducing cross-contamination for supported battery types and validated configurations.
Field-Refined Industrial Technology
Real experience at European recycling facilities has driven engineering improvements in material handling, X-ray / AI recognition, software, and automation, helping adapt BATTERAY technology to demanding operating conditions.
High-Purity Output Fractions
Reference output purity reaches 99.5% for Alk / ZnC, over 98% for Ni-Cd / Ni-MH with validated dedicated sorting, and over 95% for other supported groups under specified operating conditions.
High Industrial Throughput
BATTERAY™ ZETA processes up to 23,000 batteries/hour with a nominal capacity of 350–400 kg/hour, supporting high-volume automated sorting according to battery composition and feeding conditions.
Industrial Integration & Flexibility
Designed for standalone operation or integration into automated recycling lines, ZETA supports application-specific control, monitoring, and output arrangements as the proven sorting core of the BATTERAY Platform™.
Video
Technical data
X-Ray System & Safety
| Recognition technology | High-resolution X-ray inspection with AI-based chemistry classification |
| X-ray radiation leakage | Not exceeding 1.0 µSv/h at 10 cm from accessible external surfaces under normal operating conditions |
| Radiation protection | Protective shielding, safety interlocks, emergency stops, and X-ray status indicators |
Loading & Performance
| Input material | Prepared, individual loose portable batteries |
| Loading hopper capacity, up to | 350 kg |
| Loading hopper volume | 250 L |
| Sorting cycle speed, up to | 23,000 batteries/hour |
| Nominal throughput | 350–400 kg/hour, feed-dependent |
| Sorting groups per session | Up to 6, depending on the selected sorting program |
| Sorting architecture | 6 pneumatic ejectors |
| Nickel-group separation | Dedicated second X-ray pass for Ni-Cd / Ni-MH separation, where validated |
Operating Requirements
| Compressed air pressure | 10 bar ±10% |
| Compressed air capacity | ≥500 SLPM |
| Power supply | 220–240 VAC, 50/60 Hz |
| Maximum power consumption | 4 kVA |
Dimensions
| Length | 8960 mm |
| Width | 2690 mm |
| Height | 2400 mm |
| Required installation layout | 15000 × 8000 mm |
| Net weight | 2650 kg |
Output Purity
| Alkaline / Zinc-Carbon | 99.5% reference output purity |
| Ni-Cd / Ni-MH | Over 98% for supported types with validated dedicated sorting |
| Other supported groups | Over 95% under validated operating conditions |
Note:
BATTERAY™ ZETA performance depends on battery composition, physical condition, feed preparation, selected sorting program, and validated system configuration. Reference purity values describe output fraction quality, not overall classification accuracy. Ni-Cd / Ni-MH separation requires a dedicated second sorting pass where validated. Technical specifications and supported capabilities are subject to confirmation in the official project proposal.
X-Ray System & Safety
| Recognition technology | High-resolution X-ray inspection with AI-based chemistry classification |
| X-ray radiation leakage | Not exceeding 1.0 µSv/h at 3.9 in (10 cm) from accessible external surfaces under normal operating conditions |
| Radiation protection | Protective shielding, safety interlocks, emergency stops, and X-ray status indicators |
Loading & Performance
| Input material | Prepared, individual loose portable batteries |
| Loading hopper capacity, up to | 770 lb |
| Loading hopper volume | 66 US gal |
| Sorting cycle speed, up to | 23,000 batteries/hour |
| Nominal throughput | 770–880 lb/hour, feed-dependent |
| Sorting groups per session | Up to 6, depending on the selected sorting program |
| Sorting architecture | 6 pneumatic ejectors |
| Nickel-group separation | Dedicated second X-ray pass for Ni-Cd / Ni-MH separation, where validated |
Operating Requirements
| Compressed air pressure | 145 psi ±10% |
| Compressed air capacity | ≥17.7 SCFM (approx.) |
| Power supply | 220–240 VAC, 50/60 Hz |
| Maximum power consumption | 4 kVA |
Dimensions
| Length | 352.8 in |
| Width | 105.9 in |
| Height | 94.5 in |
| Required installation layout | 49.2 × 26.2 ft |
| Net weight | 5,840 lb |
Output Purity
| Alkaline / Zinc-Carbon | 99.5% reference output purity |
| Ni-Cd / Ni-MH | Over 98% for supported types with validated dedicated sorting |
| Other supported groups | Over 95% under validated operating conditions |
Note:
BATTERAY™ ZETA performance depends on battery composition, physical condition, feed preparation, selected sorting program, and validated system configuration. Reference purity values describe output fraction quality, not overall classification accuracy. Ni-Cd / Ni-MH separation requires a dedicated second sorting pass where validated. Technical specifications and supported capabilities are subject to confirmation in the official project proposal.
Reviews and related links
Batteries with different chemical compositions can have nearly identical external appearances. Labels may be missing, damaged, or misleading, making conventional visual identification unreliable. X-ray technology addresses this challenge by revealing structural and material-related characteristics hidden inside each battery.
BATTERAY™ ZETA combines high-resolution X-ray imaging with AI-based recognition to analyze internal geometry, component arrangements, and X-ray attenuation patterns. These features provide the basis for distinguishing supported battery chemistries without relying on readable labels or external appearance.
The resulting classification is translated into automated sorting decisions, directing batteries into defined chemistry fractions. This approach helps recycling facilities improve separation quality, reduce manual identification, and prepare more consistent material streams for downstream processing.
Explore the technology behind X-ray battery identification, its operating principles, and its role in modern industrial battery recycling.

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