How-To: Connecting JK Inverter BMS to Victron
Integrating a JK BMS (specifically the PB-series Inverter BMS) with a Victron GX system (Cerbo GX, Ekrano, or Venus OS on Raspberry Pi) is the gold standard for DIY LiFePO4 builds. This setup enables DVCC (Distributed Voltage and Current Control), allowing the BMS to dictate exactly how much current the Victron MPPTs and Inverters should provide based on real-time cell data.
Step 1: Prepare the Hardware
To establish communication, you need a specific cable. Do not use a standard Ethernet cable; the pinouts are different.
- Option A: Direct CAN Bus (Recommended) Use a Victron Type B RJ45 cable (or crimp your own).
- JK End (CAN Port): Pin 4 (CAN-H), Pin 5 (CAN-L), Pin 6 (GND).
- Victron End (BMS-Can): Pin 7 (CAN-H), Pin 8 (CAN-L), Pin 3 (GND).
- Option B: RS485 to USB (Alternative) If your CAN ports are occupied, use a Waveshare Industrial USB-to-RS485 converter to connect the BMS RS485 port directly to a USB port on your GX device.
Step 2: Configure the JK BMS Settings
Before plugging it in, you must tell the JK BMS to “speak” the Victron language.
- Open the JK BMS App on your phone.
- Go to Settings > Inverter Protocol Selection.
- Select “Victron CAN” (often listed as Protocol #4).
- Ensure the BMS ID/Address is set to 1 (for the Master battery).
- Restart the BMS using the physical “RST” button or the app.
Step 3: GX Device Configuration
Once the cable is connected to the BMS-Can port on your Cerbo GX:
- Navigate to Settings > Services > BMS-Can Port.
- Set the CAN-bus speed to 500 kbit/s (this is the standard for JK and Victron).
- Go back to the main device list. You should now see “JK-BMS” appearing as a connected device.
Step 4: Enable DVCC (The Critical Step)
For the BMS to actually control the charging process, DVCC must be active.
- Go to Settings > DVCC.
- Switch DVCC to ON.
- Ensure “Limit Charge Current” and “Limit Managed Battery Voltage” are visible (they will be automatically populated by the JK BMS).
- Set Shared Voltage Sense (SVS) to OFF (the BMS provides this data).
Troubleshooting FAQ
Q: The BMS isn’t showing up on my GX device.
- Check the Port: Ensure you are using the BMS-Can port, not the VE.Can port (unless you have changed the VE.Can speed to 500k).
- Check the Cable: 90% of issues are cable-related. Verify your Pin 4/5 (JK) matches Pin 7/8 (Victron).
Q: I have multiple batteries in parallel. How do I connect them?
- Connect the batteries together via their RS485-2 ports using standard RJ45 cables.
- Set Battery 1 to Address 1, Battery 2 to Address 2, etc.
- Only the Master (Address 1) connects to the Victron GX via the CAN port.
Q: Can I use the Bluetooth driver instead?
- Yes, for older non-inverter JK BMS models, you can install the dbus-serialbattery driver on Venus OS to connect via Bluetooth, though a wired CAN connection is significantly more stable for 48V power systems.
Can a non-CEC Inverter be connected to the Australian grid?
Lets use a Victron Multi RS Solar PMR482602020 as example
Report date: 11 February 2026 (Australia/Brisbane)
Scope: Whether the Victron PMR482602020 (Multi RS Solar 48/6000/100-450/100) can be legally/technically connected in parallel with the Australian distribution grid when it is not on the Clean Energy Council approved inverter list (āCEC-approvedā in common installer shorthand). This report focuses on electricity-network connection rules and published DNSP requirements. Local council/planning rules are not assessed (unspecified; varies by council and local planning schemes).
General information only ā not legal advice. Always confirm with the local DNSP and state/territory electrical safety regulator before purchasing or installing equipment.
This report was compiled with the help of Artificial intelligence on 11/02/2026, it should not be used other than to do your own research, to assist you in your own research, you must verify all claims made here, by the AI before proceeding, and you should be a qualified person to perform any electrical work.
Executive summary
In Australia, the entity that decides whether an inverter energy system may be connected to the distribution grid is the local distribution network service provider (DNSP) via the connection application/offer and connection agreement ā not the Clean Energy Council (CEC). However, in practice, DNSPs overwhelmingly require inverters to be on the CEC Approved Inverter List (or equivalent āapproved/onboardedā lists derived from it), because CEC listing is the most common way DNSPs verify compliance to the relevant inverter standards (especially AS/NZS 4777.2). Many DNSPs also build their application portals so that installers can only select inverters drawn from the CEC-supplied list.
Consistent with that, every major Australian DNSP reviewed in this report publishes a requirement that grid-connected inverters be CEC-listed (or āCEC approvedā), with only two DNSPs (Ausgrid and Endeavour Energy) explicitly publishing a pathway for a āCEC unlisted inverter proposalā via written approval. Even under those āwritten approvalā pathways, the inverter still needs to meet the technical requirements (AS/NZS 4777.2/4777.1 and DNSP-specific settings/controls), and DNSPs warn installers they may be required to replace non-compliant inverters at their own cost if installed without meeting requirements.
For the Victron PMR482602020 specifically, Victronās own public documents for the Multi RS Solar show extensive international certifications, but do not show an AS/NZS 4777.2 certificate on the productās certificate list, and the product datasheetās standards list also does not include AS/NZS 4777.2. By contrast, Victron does publish AS/NZS 4777.2 certification for some other models (e.g., MultiPlus-II), demonstrating what an Australian certificate looks like. This strongly suggests the Multi RS Solar PMR482602020 is not presently certified/listed for Australian grid-parallel connections. (It may still be suitable for off-grid or generator-only use, but that is a different compliance pathway.)
Bottom line: if your PMR482602020 is not CEC-listed, you should assume it will be rejected for grid connection by most DNSPs. The only realistically arguable pathway is a case-by-case written approval with a DNSP that explicitly allows proposals for CEC-unlisted inverters (published only for Ausgrid and Endeavour Energy), supported by full thirdāparty compliance evidence and any DNSP communications/export-control requirements. For all other DNSPs, the published position indicates no non-CEC pathway for new grid-parallel connections (unless an exemption is explicitly published by a government technical regulator for a defined purpose, such as South Australiaās dynamic export regime ā and those exemptions are time- and model-specific).
Legal and regulatory framework
Who has the āyes/noā authority to connect to the grid?
The practical permission to connect comes from the DNSP connection process: you apply (often via an installer portal), receive a connection offer/approval subject to conditions, and connect/commission in accordance with that agreement and the DNSPās technical requirements. Some DNSPs state explicitly that approval is only granted after entering into a connection agreement, even for zero-export systems.
Where does the CEC āapproved inverter listā fit?
The CEC is not the grid connection decision-maker, but its āApproved Inverter Listā is the key reference dataset used across Australia. The CEC itself describes permitted API use cases including āNetwork Service Providers confirming that an inverter is listed on the CECās Approved Inverter List prior to connectionā, which is an unusually direct statement of how the list is used in DNSP practice.
The CECās inverter listings are also structured around evidence of compliance: the CEC notes that model numbers with an ā(AS4777-2 2020)ā suffix indicate approval supported by an AS/NZS 4777.2:2020 certificate issued by a JASāANZ accredited certifier or state electrical regulator. Separately, Energy Networks Australia notes that most DNSPs use the CEC approved inverter listing as their approved product list and many use it to populate their customer portals.
Why CEC listing matters even beyond DNSPs: STCs and the Clean Energy Regulator
If the installation is intended to create Smallāscale Technology Certificates (STCs) under the Smallāscale Renewable Energy Scheme, the federal Clean Energy Regulator states that newly installed small generation units must have their panels/batteries/inverters listed on the CEC list of approved components (among other requirements). So a nonāCEC inverter may not only jeopardise DNSP grid approval; it can also remove STC eligibility (which impacts economics and retailer finance).
AS/NZS 4777.2 and the National Electricity Rules context
The inverter behaviour standard at the centre of Australian gridāconnected DER is AS/NZS 4777.2. AEMO explains that AS/NZS 4777.2 specifies expected lowāvoltage inverter performance/behaviour and compliance tests, and links compliance to secure operation under high DER penetration. AEMO also describes work with the Clean Energy Regulator and the CEC to incorporate inverter settings checks into CER inspections, reflecting enforcement attention on not just hardware certification but actual commissioning settings.
Multiple DNSPs explicitly describe AS/NZS 4777.2 as āmandated by the National Electricity Rulesā in their installer guidance. For example, Ausgrid and Endeavour Energy state that AS/NZS 4777.2:2020 (āInverter Requirementsā) is mandated by the National Electricity Rules. SA Power Networks also references National Electricity Rules amendments commencing 18 December 2021 requiring grid-connected inverters to comply with AS/NZS 4777.2:2020.
AEMO DER Register: an additional compliance āpaper trailā
Australiaās DER Register (operated by AEMO) is a national database of installed DER devices; AEMO explains it launched in March 2020 and that DER device information is typically requested from installers/contractors at installation time. DNSPs commonly require installers to submit DER details within 20 days of commissioning, and DNSP pages in NSW explicitly reference this requirement and provide installer contacts.
Verification of the Victron Multi RS Solar certification status
What Victron publishes for the Multi RS Solar
On Victronās public Multi RS Solar product page, the āCertificatesā section lists multiple country/region certifications (e.g., VDEāARāN 4105, EN 50549 variants, IEC safety standards, etc.). The list shown does not include an Australian AS/NZS 4777.2 certificate for the Multi RS Solar.
The Multi RS Solar datasheet lists technical specifications and a āSTANDARDSā line showing safety and EMC standards (e.g., IEC 62109, IEC 62040, IEC 62477) but does not list AS/NZS 4777.2 in that standards block. The datasheet also shows the unitās PV characteristics (450 V open-circuit maximum, MPPT operating range up to 450 V, and PV input current limits), but these electrical specs do not substitute for Australian gridāconnection certification.
What an Australian AS/NZS 4777.2 certificate looks like for Victron (comparison)
Victron does publish an Australian certificate example for other products: a āCertificate of Suitabilityā (issued by SGS Australia under a JASāANZ accredited scheme) for MultiPlusāII models that explicitly lists compliance including AS/NZS 4777.2:2020 (and related standards). This demonstrates that Victronās public documentation can include Australian certification where it exists.
Implication for grid connection
CEC listings commonly rely on recognised certification evidence (including JASāANZ accredited certification or state regulator certification) and distinguish AS/NZS 4777.2:2020 compliant models via the ā(AS4777-2 2020)ā suffix. If the Multi RS Solar lacks AS/NZS 4777.2 certification evidence, it is difficult to see how it could be accepted for gridāparallel connection under DNSP rules that require CEC listing.
DNSP implementation in Australia
Coverage and summary chart
The table below covers the standard electricity DNSPs for the ACT, NSW, VIC, QLD, SA, TAS, WA and NT (the same DNSPs consumers typically see on their network/distributor details). Chart: DNSP published requirement for CEC-listed inverters (Australia-wide, reviewed DNSPs) Total DNSPs reviewed: 16 ā CEC required (no explicit non-CEC exception published): 14 (87.5%) ā Conditional (CEC or explicit āwritten approvalā pathway for unlisted inverter): 2 (12.5%) 14 2
Interpretation note: āConditionalā here means the DNSPās published guidance explicitly offers a written-approval pathway for a āCEC unlisted inverter proposalā. It does not mean the DNSP accepts uncertified equipment; technical compliance still applies.
DNSP-by-DNSP table
| DNSP | Published DG / connection policy (primary link) | CEC approval required? | Explicit wording / clause (excerpt) | Does DNSP allow nonāCEC inverters? | Contact / process to request approval | Typical technical conditions highlighted in policy |
|---|---|---|---|---|---|---|
| īentityī[“company”,”Evoenergy”,”act electricity distributor”]ī | LV Embedded Generation Technical Requirements (PDF) | Yes | IES āshall comprise of inverters that are registered with CEC as approved grid connect inverters or multiple mode invertersā. | No (no published exception pathway found) | General DNSP contact details via Evoenergy website; ENA identifies contact email for embedded generation enquiries. | AS/NZS 4777.2 + accreditation number; CEC registered; Australia A settings tables; DNSP may require written approval before changing power quality settings. |
| īentityī[“company”,”Ausgrid”,”nsw electricity distributor”]ī | Information for solar installers | Conditional | Inverter must be AS/NZS 4777.2 compliant and either ābe of a type approved by the Clean Energy Councilā or āhave written approval from Ausgrid⦠discuss your CEC unlisted inverter proposalā. | Yes ā case-by-case written approval (published pathway) | Email published for āCEC unlisted inverter proposalā: [email protected] | Australia A settings; DNSP settings per NS194; warning that nonācompliant inverters may need replacement at installer cost; NSW Emergency Backstop (midā2026) expects CSIPāAUS compliance and capability testing, with low-export fallback for poor internet. |
| īentityī[“company”,”Endeavour Energy”,”nsw electricity distributor”]ī | Information for solar installers | Conditional | Inverter must either be āapproved by the Clean Energy Councilā or have āwritten approval⦠to use the make and model⦠(contact us to discuss your CEC unlisted inverter proposal)ā. | Yes ā case-by-case written approval (published pathway) | Endeavour instructs āplease contact usā for unlisted inverter proposal; ENA provides DNSP contact email list for general enquiries. | Australia A settings; NS194 set-up; DER Register reporting within 20 days; warning that nonācompliant inverters may need replacement. |
| īentityī[“company”,”Essential Energy”,”nsw electricity distributor”]ī | Essential Connections Portal Guide (PDF) | Yes | Portal requires users to āsearch and select precise inverters from the Clean Energy Council supplied listā. | No (portal design implies no unlisted selection for basic applications) | Connection via Essential Connections Portal; ENA provides a DNSP contact email for Essential Energy. | Export limits (e.g. auto-approval constraints); inverter selection from CEC list; evidence uploads depending on application type. |
| īentityī[“company”,”AusNet Services”,”vic electricity distributor”]ī | SOP 33-06 Export limits up to 200 kVA (PDF) | Yes | Defines āApproved Inverterā as AS/NZS 4777 compliant and listed on Clean Energy Council tested/approved inverters; also states all EG systems require a Connection Agreement (even zero export). | No (no published āunlisted inverterā exception pathway found) | Pre-approvals/connection via AusNet processes; ENA provides pre-approvals email contact. | Connection agreement required even for zero export; limited export control accuracy requirements; commissioning test reports for limited export; capability testing / utility-server interactions and fallback export limits in some cases. |
| īentityī[“company”,”CitiPower”,”vic electricity distributor”]ī īentityī[“company”,”Powercor”,”vic electricity distributor”]ī | Rooftop solar connection steps Installer steps (CSIP-AUS / portal guidance) | Yes | Customers āmust have a reliable internet connection and select a CEC approved and CitiPower/Powercor onboarded inverter.ā | No (must be CEC-approved and also āonboardedā) | Email contacts published in DNSP materials and ENA contact list for CitiPower/Powercor new energy services. | Victorian emergency backstop: CSIPāAUS communications, internet connectivity, export limiting, commissioning/capability test, commissioning sheet/CES validation before meter changes. |
| īentityī[“company”,”Jemena Electricity Networks”,”vic electricity distributor”]ī | Jemena approved list of inverters | Yes | āThe inverter selected must be on the Clean Energy Council list of compliant invertersā and (from 1 July 2025) must also be on Jemenaās approved list; non-listed inverters ācannot connect and commissionā. | No (must be on CEC list and Jemena list) | Jemena connection process and āapproved listā pathway; ENA provides contact email for generation enquiries. | Emergency backstop: active comms link; CSIPāAUS compliant inverter; internet connectivity. |
| īentityī[“company”,”United Energy”,”vic electricity distributor”]ī | Smart inverter compliance factsheet (PDF) Approved devices for solar installers | Yes | Factsheet: āEnsure the inverter⦠is Clean Energy Council (CEC) approved.ā Also: āOur validation steps check that a CEC approved inverter has been used.ā | No | Factsheet publishes embedded generation contact email; ENA provides DNSP emails for basic/negotiated connections. | Australia A settings; export cap to pre-approval (typical 5 kW); internet connection; for export, systems under 200 kW must be CSIPāAUS compatible and connected to utility server; only onboarded devices eligible to export. |
| īentityī[“company”,”Energex”,”qld electricity distributor”]ī | Standard for LV EG Connections (PDF) Dynamic Connections overview | Yes | Standard: āThe inverters should be registered with CEC as approved grid connect inverters.ā Dynamic Connections page: generating products āwill need to be listed with the Clean Energy Councilā and connected to utility server via WiāFi internet. | No (no published non-CEC pathway found) | Energex connection process; ENA provides Energex contact email. | Australia A settings; DNSP connection agreement; export limits; for dynamic exports: utility-server communications and fallback export limits if comms fail. |
| īentityī[“company”,”Ergon Energy Network”,”qld electricity distributor”]ī | Connection information for installers | Yes | Installer guidance includes: āConfirm the equipment you are installing is CEC approved.ā | No (no published non-CEC pathway found) | Ergon connection portal/process; ENA provides Ergon contact email. | Emergency Backstop Mechanism in QLD applies from 6 Feb 2023 for selected systems (GSD requirement); technical standards referenced and listed for installers. |
| īentityī[“company”,”SA Power Networks”,”sa electricity distributor”]ī | AS/NZS 4777.2:2020 change notice SA dynamic export limits requirement (government) | Yes | SA Power Networks: uses the CEC āApproved Inverterā listing to verify inverter compliance; select AS/NZS 4777.2:2020 compliant inverter from the list for applications. | Generally no for new export-capable systems. Government dynamic export regime notes timeālimited transitional/exemption arrangements; after 1 April 2024, certification and CEC listing mandatory for prescribed dynamic export equipment. | SA Power Networks publishes contact email for new energy services; government OTR contact details also published for dynamic export guidance. | Dynamic export capable equipment (for export-capable connections) and capability testing; zero-export sites exempt from dynamic export compliance but still must meet general connection rules; government/policy timelines matter. |
| īentityī[“company”,”TasNetworks”,”tas electricity distributor”]ī | Basic Micro EG Connection Technical Requirements (PDF) | Yes | IES must include inverters āregistered with CEC as approved grid connect invertersā (and AS/NZS 4777.2 certification with accreditation number). | No | TasNetworks connection application process; ENA provides new supply applications email. | Australia C regional setting environment (see ENA region table); export limits and inverter settings per TasNetworks requirements. |
| īentityī[“company”,”Western Power”,”wa electricity distributor”]ī | AS/NZS 4777.2 transition requirements Technical guidance for solar installers | Yes | Western Power states it āuses the Clean Energy Council (CEC) inverter list, and inverters must be accredited with the CEC to be deemed to comply.ā | No (no published CECāunlisted approval pathway found) | Western Power embedded generation application process; ENA lists Western Power contact link. | Australia Region B settings; firmware updates; technical review if criteria not met; CEC-approved product list influences streamlined approvals. |
| īentityī[“company”,”Horizon Power”,”wa regional electricity distributor”]ī | Basic EG Connection Technical Requirements (PDF) | Yes | IES must include inverters āregistered with CEC as approved grid connect invertersā and included on the SGD compatible inverter list; CEC listing must not have expired. | No (must be CEC-listed and SGD-compatible) | Horizon Power installer processes; ENA provides renewables contact email. | Secure Gateway Device (SGD) and hardwired ethernet requirements; DERMS control; Australia C setting; export limits and operating envelopes; compatible inverter list governance. |
| īentityī[“company”,”Power and Water Corporation”,”nt electricity distributor”]ī | Basic Micro EG Technical Requirements (ā¤30 kVA) (PDF) PV class requirements (download links) | Yes | IES must include inverters āregistered with the Clean Energy Council (CEC) as approved grid connect inverters.ā | No | Power and Water āconnect meā email listed by ENA. | Australia A setting; inverter certification to AS/NZS 4777.2 with accreditation number; (Power & Water appears in both region A and region C mapping guidance depending on network context); plus commissioning form requirements. |
Interpretation notes on the table:
1) āCEC approval requiredā means the DNSPās published guidance requires selection of a CECālisted inverter (or defines āapproved inverterā as one listed on the CEC list), or requires the inverter be CECāregistered/approved as a gridāconnect inverter. In Victoria, several DNSPs additionally require the inverter to be āonboardedā to the DNSPās utility server (CSIPāAUS / IEEE 2030.5 context).
2) āConditionalā is used only where the DNSP explicitly publishes a āwritten approvalā pathway for a CECāunlisted inverter proposal (Ausgrid and Endeavour Energy).
3) Some technical documents use the word āshouldā for CEC registration; however, DNSP portals, related installer guidance, STC rules, and emergency backstop/dynamic export regimes frequently make CEC listing a practical prerequisite to approval and commissioning.
So can PMR482602020 be grid-connected if itās not CEC-approved?
For a grid-parallel connection (exporting or capable of exporting in normal operation), the published DNSP position across Australia is effectively ānoā, unless a DNSP explicitly grants an exception. Most DNSPs state their inverter must be CEC-approved/registered, and their portals and commissioning regimes (CSIPāAUS onboarding, utility server capability tests, export limiting, regional settings) are built around that assumption.
In NSW, Ausgrid and Endeavour Energy are notable because they explicitly publish a writtenāapproval pathway to propose a CECāunlisted inverter. That pathway is not automatic approval: it simply means the DNSP is willing to assess the proposal. If assessed and rejected (or if installed without meeting requirements), the installer may be required to replace the inverter at their own cost. Given the Multi RS Solarās apparent lack of AS/NZS 4777.2 certification evidence in Victronās public materials, obtaining approval would likely require strong thirdāparty certification evidence and DNSP-compatible control/communications.
For non-export / off-grid configurations: Many standards and DNSP rules treat systems as āgrid connectedā if they can operate in parallel with the distribution system; true off-grid or break-before-make changeover arrangements may fall outside embedded generation connection rules, depending on design. This is highly technical and jurisdiction-dependent ā if the intent is any form of grid interaction, assess it with the DNSP and a suitably licensed electrician/engineer before purchase.
Practical steps for installers and system owners
Before you buy or install (the ādonāt get stuck with an unconnectable inverterā checklist)
- Identify the DNSP first (your distributor). Use regulator resources (AER) or check the electricity bill.
- Confirm the inverter is on the CEC Approved Inverter List (and check the listing is current/not expired). Also confirm the correct AS/NZS 4777.2 standard version and regional setting apply.
- Confirm state/DNSP-specific mandatory controls:
- Victoria: emergency backstop / CSIPāAUS utility server onboarding requirements are explicit for several DNSPs.
- Queensland: emergency backstop mechanism / Generation Signalling Device requirements are documented for certain systems.
- South Australia: dynamic export capable equipment/commissioning tests and timelines are governed by government technical regulator guidance and SA Power Networks processes.
- Western Australia (SWIS): Western Power requires Australia Region B settings; CEC listing is used to deem compliance.
- Horizon Power: SGD compatibility list and hardwired comms to DERMS are mandatory for relevant connection classes.
- Confirm STC / rebate implications early: if STCs are part of the commercial model, check the Clean Energy Regulator eligibility rule requiring CEC-listed components.
If you still want to pursue a non-CEC inverter grid connection
In practice, this only makes sense where the DNSP explicitly allows an āunlisted inverter proposalā pathway (published for Ausgrid and Endeavour). For those DNSPs, engage before purchase and be prepared to supply:
- Independent certification evidence to AS/NZS 4777.2 (current applicable version) and anti-islanding evidence (IEC 62116), plus installation compliance to AS/NZS 4777.1. DNSPs commonly require an accreditation number and/or recognised test evidence.
- Evidence that the unit can be configured to the DNSP required regional settings (Australia A/B/C) and that those settings are locked/verified.
- Evidence of compliance with communications/export control obligations if applicable (CSIPāAUS/IEEE 2030.5, utility server connectivity, capability tests, fallback export behaviour).
- A clear single-line diagram and export-limiting method (where limited export applies), plus any commissioning test report required by the DNSP.
If you cannot supply the above, the probability of approval is low, and installing anyway risks forced replacement and/or inability to legally energise/export.
Post-install obligations that commonly apply
- AEMO DER Register submission (commonly within 20 days of commissioning), either by the installer or via DNSP-integrated workflows depending on jurisdiction.
- Commissioning evidence: many DNSPs require commissioning sheets/capability test results and validate certificates of electrical safety before enabling metering / export.
Alternative compliant ways to achieve a Victron-based system
If the goal is āVictron ecosystem + legal grid connectionā, the simplest path is to choose a CEC-listed inverter/charger or hybrid inverter suitable for your topology and DNSP requirements, and confirm listing status before purchase. Victron has published AS/NZS 4777.2 certification for some products (e.g., MultiPlusāII certificate shown), and many other mainstream brands are listed on the CEC approved inverter list used by DNSPs and STC eligibility rules.
Important: āCEC-approvedā can mean different things in casual conversation (installer accreditation vs product listing). Here it means the product is listed on the CEC approved inverter list used by DNSPs and STC eligibility rules.
Primary sources linked in this report
- īentityī[“organization”,”Clean Energy Council”,”australian clean energy body”]ī ā Approved inverter list and product program pages: CEC approved inverters and Products program FAQ.
- īentityī[“organization”,”Clean Energy Regulator”,”australian government renewable regulator”]ī ā STC eligibility and CEC list requirement: Small-scale renewable energy systems.
- īentityī[“organization”,”Australian Energy Market Operator”,”australian energy market operator”]ī ā AS/NZS 4777.2 context and inverter inspections: AS/NZS 4777.2 ā Inverter Requirements standard; DER Register: About the DER Register.
- īentityī[“organization”,”Energy Networks Australia”,”australian energy networks industry body”]ī ā DNSP region settings mapping and āmost DNSPs use CEC listā note: FAQ: Changes to Inverter Standards.
- īentityī[“organization”,”Australian Energy Regulator”,”australian energy regulator”]ī ā Distributor identification: Who is your distributor?.
- īentityī[“company”,”Victron Energy”,”power electronics manufacturer”]ī ā Multi RS Solar product page: Multi RS Solar; datasheet: Datasheet ā Multi RS Solar (PDF); example AS/NZS 4777.2 certificate (other model): Certificate of suitability (SGS) (PDF).
The Ultimate 2026 Home Battery Guide: Comparing Sigenergy, GoodWe, Deye, RUIXU and More Before the Rebate is reduced
Part 1: The Federal Rebate “Double Squeeze” & The February-March Deadline
Title Idea: The Ultimate 2026 Home Battery Guide: Comparing Sigenergy, GoodWe, Deye, RUIXU and More Before the Rebate Drop
The “May 1st” Reality Check
If youāve been considering a home battery in Australia, the clock is no longer just tickingāitās racing. On May 1st, 2026, the Federal Governmentās Cheaper Home Batteries Program undergoes its most significant change since inception. We are facing a “Double Squeeze”:
- The STC Factor Drop: The multiplier drops from 8.4 to 6.8.
- Size Tapering: For the first time, rebates will be tiered. You get 100% of the rebate for the first 14kWh, but that drops to 60% for anything between 14-28kWh, and a measly 15% for capacity above 28kWh.
Why February 28th is your real deadline: While the rules change in May, the rebate is based on the installation date, not the order date. With Australian installers currently facing 8-12 week lead times, any order placed after February 28th risks missing the May 1st cutoff, potentially costing you over $5,000 in lost incentives.
The Contenders: Individual System Reviews
1. Sigenergy SigenStor (10kW / 40kWh)
The Innovation Leader
The Sigenergy SigenStor is the worldās first “5-in-one” system. It integrates the inverter, battery, and even an optional DC EV charger into one stack. Its pricey, but the software is attractive and functional.
- The Tech: It uses 8kWh modules with high-grade 280/314Ah cells. Its standout feature is V2X (Vehicle-to-Everything) readiness, allowing your future EV to power your home.
- Safety: It includes “Sigen Shield,” an internal aerosol fire suppression system in every module.
- Best For: Premium homeowners who want the most advanced, “Apple-like” experience and are planning for an EV (that needs ultra fast recharging at home or business)
- Considerations Sigenergy is premium, and may have a very long payback period, sometimes over 10 years. Other battery systems offer superior payback and therefor value in majority of cases.
2. GoodWe ESA Series (9.99kW / 40kWh)
The Reliable Workhorse
GoodWe has been a staple in the Australian market for over a decade. The ESA is their “all-in-one” tower designed for simplicity and massive backup power.
- The Tech: It features a 63A bypass, meaning it can back up almost an entire home without needing a complex external gateway. It boasts a UPS-level switching speed of under 4ms.
- Best For: Families where “keeping the lights on” during a blackout is the #1 priority.
- Safety – ESA includes internal aerosol fire suppression at the module level
- Compare with – Sigenergy, minus the mostly unnecessary DC charger, which is in many cases not worth the cost, to discuss why, call us directly on 07 4191 6815
3. Dyness Cygni (10kW / 46.08kWh)
The Value/Capacity Specialist
Dyness has carved out a niche by offering high-density storage that is remarkably easy to scale.
- The Tech: The Cygni uses a 1C charge/discharge rate, meaning it can fill or empty its entire capacity in just one hourāideal for capturing rapid solar spikes or handling heavy evening loads.
- Best For: Large properties with high energy demands that need maximum storage for a mid-range price. Space saving design, good for on-grid users, installing indoors.
- Considerations – Being Mid tier, there can be better value, or better quality found elsewhere, depending on your own circumstances, for a more tailored system, tell us everything you can about your usage and future plans, call on 07 4191 6815 now.
4. Deye AI-W5.1-B (10kW / 30.74kWh)
The Smart Manager
Deye is beloved by tech enthusiasts for its incredibly flexible “Smart Load” port.
- The Tech: This system allows you to divert excess solar to specific appliances (like a pool pump or hot water) only when the battery is full, without needing extra external controllers.
- Best For: Users who want to “micro-manage” their energy and achieve the fastest possible ROI through smart self-consumption.
5. Deye 10kW LV + RUIXU Lithi2-16 (48kWh)
The “Tank” System.
By pairing a Deye 10kW Low Voltage inverter with RUIXU Lithi2-16 units, you create an industrial-grade powerhouse. These Inverters are extremely reliable, which is why we choose them almost every time for off-grid users. However, they are also good for on-grid users with high energy demands.
- The Tech: Since this system uses a DEYE inverter, this allows you to divert excess solar to specific appliances (like a pool pump or hot water) only when the battery is full, without needing extra external controllers.
- The RUIXU batteries are rated for 9,500+ cycles. Most competitors offer 6,000. These batteries feature built-in heaters for cold climates (very important for places where the temperature drops under a few degrees celcius, and individual LCD touchscreens for manual monitoring.
- Safety: It also includes an internal aerosol fire suppression system in every module/battery.
- Best For: The “forever home.” Especially off-grid, This system is built for longevity and massive daily cycling.
6. Anker Solix X1 (10kW / 30kWh)
The Climate Survivor
Anker, a global leader in portable power, has entered the home market with a system designed for harsh environments.
- The Tech: It is IP66 rated and features a C5-M anti-corrosion coating. More importantly, it can output full power at 55°C, whereas many other batteries “derate” (slow down) once they hit 40°C. The Anker Solix X1 is equipped with an active cooling system, (fans)
- Best For: Coastal homes or scorching inland areas like Western Australia or Queensland.
Part 2: The Direct Comparison & Financial Verdict
Performance Comparison Table
| System | Best For | Storage (kWh) | Max Power | Warranty | Key Differentiator |
| Sigenergy | Future-Proofing | 40.0 | 10kW | 10 Year | V2X / EV Integration |
| GoodWe ESA | Whole-Home Backup | 40.0 | 10kW | 10 Year | 63A Bypass / UPS Speed |
| Dyness Cygni | Raw Capacity | 46.1 | 10kW | 10 Year | 1C Charge/Discharge Rate |
| Deye AI-W | Smart Control | 30.7 | 10kW | 10 Year | Smart Load Port / Flexibility |
| Deye + RUIXU | Extreme Longevity | 48.0 | 10kW | 10 Year | 9,500+ Cycle Life |
| Anker Solix | Harsh Climates | 30.0 | 10kW | 10 Year | 55°C Temp / IP66 Rating |
The Financial Impact: Buy Now vs. Post-May 1st
Because these systems have large capacities, they are hit hardest by the new Size Tapering rules. After May 1st, any capacity over 28kWh receives only 15% of the standard rebate.
| System | Price Today (Approx) | Est. Rebate Loss (after May 1) | Total Cost Increase |
| Deye + RUIXU (48kWh) | $14,000 | $5,576 | $19,576 |
| Dyness Cygni (46kWh) | $15,000 | $5,314 | $20,314 |
| Sigenergy (40kWh) | $17,592 | $4,418 | $22,010 |
| GoodWe ESA (40kWh) | $15,000 | $4,418 | $19,418 |
| Deye AI-W (30kWh) | $12,000 | $3,364 | $15,364 |
| Anker Solix (30kWh) | $16,000 | $3,256 | $19,256 |
Final Recommendation
- If you want the best “Dollar per kWh”: The Deye + RUIXU combo is unbeatable. For $14,000, you are getting nearly 50kWh of industrial-grade storage. However, this system stands to lose the most ($5,576) if you miss the deadline.
- If you want the best Technology: Sigenergy is the choice for those who want their home to be EV-ready and AI-optimized.
- If you want Peace of Mind: The GoodWe ESA offers a proven Australian track record and the most robust backup performance.
Action Plan:
To ensure you qualify for the current rebate (which effectively pays for 30% of your system), you must have your installation complete before May 1st. We recommend finalizing all orders by February 28th to allow for the mandatory 2-month installation and grid-approval window.
Why Natron Energy Collapsed
What happens when mass manufacturing and scale disrupts new and sometimes better technology for niche applications
Inside the $1.4B Battery Dream That Died Overnight
Just one year after announcing a $1.4 billion sodium-ion battery gigafactory that promised 1,000 high-wage jobs in rural North Carolina, Natron Energy is gone.
On September 4, 2025, the 13-year-old California startup shut down all operations, laid off its entire workforce of ~95 employees, and abandoned plans for what was to be one of the largest sodium baed clean-energy investments in the USA
The news hit like a shockwave ā not just for the workers in Michigan and California, but for state officials who had already approved $56.3 million in incentives (none of which were paid).
So what went wrong?
In this deep-dive investigation, we uncover the real reasons behind Natronās collapse ā from frozen investor payments and policy shifts to manufacturing economics and a fatal mismatch between innovation and market timing.
The Final Days: A Desperate Search for Cash
According to internal documents and interviews, Natronās board made the final call on August 27, 2025: fundraising efforts had failed.
āNatronās efforts to raise sufficient new funding were unsuccessful, having failed to result in sufficient funding proceeds to cover the required additional working capital and operational expenses.ā
ā Elizabeth Shober, Head of Team & Talent, in letter to Michigan labor officials
The company had been in survival mode for months:
- Existing investors ā including Chevron, United Airlines Ventures, and Khosla Ventures ā froze scheduled payments starting in June 2025.
- A Series B round was pitched but never closed.
- Debt financing talks collapsed.
- Even a last-ditch asset sale (via California advisory firm Sherwood Partners) came too late.
By late August, Natron had only $25 million USD in booked orders ā mostly for data center backup power ā but couldnāt fulfill them. Certification delays (UL 1973) and the looming 60-day WARN Act layoff notice created a death spiral:
no delivery ā no revenue ā no investor confidence ā no lifeline.
CEO Colin Wessells stepped down in December 2024 ā citing the āall-consumingā burden of fundraising. His departure was an early warning sign.
The Cost Conundrum: BOM vs. Reality
Natronās sodium-ion batteries were built on a compelling promise: cheaper, safer, more sustainable than lithium-ion.
Using Prussian blue electrodes and abundant materials like sodium, aluminum, iron, and manganese, the company avoided lithium, cobalt, and nickel entirely. No rare earths. No geopolitical risk.
| Component | Natron (Sodium-Ion) | Lithium-Ion (LFP) |
|---|---|---|
| Cathode | Prussian blue (Fe, Mn, Na) | Lithium iron phosphate |
| Anode | Hard carbon | Graphite |
| Electrolyte | Sodium salt in organic solvent | Lithium salt |
| Projected BOM Cost (2030) | $10/kWh (grossly exaggerated) | $40ā60/kWh |
But hereās the catch: low energy density (~50 Wh/L vs. 300 Wh/L for Li-ion) meant Natronās batteries were only viable for power-dense applications like grid or data centre stabilization and or possibly fast-charging stations ā not EVs or consumer devices. The reality was, they were heavy, and huge. And over time, the price of Lithium based batteries fell so quickly, that most technology has been put out of business.
China dominates battery manufacturing, overnight in december 2024, CATL announced a 50% price drop for LFP batteries at the cell level. From around $100 per kWh to $50 per kWh. This price is wholesale, without any retail margins, so its not the true cost, but it gives you an idea, of the power they can weild, this also affected many other chinese companies, such as Gotion, but this decision also completely wiped out all the planned factories across the globe, some in the USA, and some in Australia who had been budgeting for $100 a kWh, they now had no future.
China is not messing around, this is a fight that without mega Billions of dollars, supply chains and the highest level of automation, the competiting countries have no chance of getting off the ground.
And while long-term BOM costs looked promising, scaling manufacturing was brutally expensive:
- Retrofitting the Michigan plant cost $40 million.
- The North Carolina gigafactory was budgeted at $1.4 billion ā 40x the Michigan siteās capacity.
- Upfront system costs were higher than Li-ion initially, with savings only over 50,000+ cycles.
Even with $35/kWh IRA tax credits, the math didnāt work without massive volume ā and volume required capital Natron no longer had.
Market Timing: The Lithium Price Crash
In 2022, lithium carbonate hit $80,000/ton. Sodium-ion looked like the future.
By 2025? Under $10,000/ton. A 70%+ collapse.
Suddenly, lithium iron phosphate (LFP) batteries ā already dominant in China ā became cheaper than ever. Data centers and utilities asked: Why switch to an unproven chemistry?
Natronās niche advantage evaporated.
The Full Breakdown: Why Natron Failed
| Factor | Impact | Outcome |
|---|---|---|
| Frozen Investor Payments | Chevron, United, Khosla halted funds in June 2025 | Cash runway ended |
| Policy Shift | Reduced federal support under Trump admin; ARPA-E grants stalled | Lost goodwill funding |
| Certification Delays | UL 1973 blocked $25M in orders | No revenue to show investors |
| Lithium Price Crash | 70% drop eroded cost edge | Customers stayed with LFP |
| High CapEx for Low-Density Tech | $1.4B factory for power-focused batteries | Too risky without scale |
| China Dominance | ~100% of global sodium-ion capacity | U.S. startups outgunned |
Whatās Next for Sodium-Ion?
Natronās collapse is not the end of sodium-ion technology.
Experts like those at Mana Battery call it āvery specific to Natronā ā citing execution missteps, niche focus, and bad timing. Others, like Bedrock Materials and Peak Energy, are still advancing sodium-ion with smaller, grid-focused strategies.
China already has over 10 GWh of sodium-ion capacity online. The chemistry works. The market exists.
But Natronās story is a sobering reminder: in clean energy, innovation alone isnāt enough. You need capital, timing, policy, and customers ā all aligned.
North Carolinaās Kingsboro megasite is back on the market.
State officials call it āone of the top megasites in the country.ā
This was its second major flop in seven years.
Sources & Further Reading
- WRAL News ā Original closure announcement
- Battery industry reports (2024ā2025): Mana Battery, BloombergNEF, ARPA-E
- Internal Natron documents via Michigan WARN Act filings
- Interviews with former employees and industry analysts
Differences in Internal Resistance between LFP manufacturers and cell models
Overview of LFP Prismatic 314Ah Cells
Lithium Iron Phosphate (LiFePO4 or LFP) prismatic cells in the ~314Ah capacity range are popular for energy storage systems (ESS), electric vehicles (EVs), and solar applications due to their safety, long cycle life (often 4,000ā8,000+ cycles), and stable voltage plateau around 3.2V. These cells share similar dimensions (typically ~174mm x 72mm x 207mm) and chemistry but differ in design optimizations, leading to variations in performance metrics like internal resistance (IR).
Observed IR values (EVE MB31 ~0.18 mĪ©, LF304 ~0.15 mĪ©, REPT ~0.23 mĪ©) align closely with manufacturer specifications and real-world testing. Note that IR is typically measured as AC impedance at 1 kHz (per industry standards) and can vary ±0.05 mĪ© due to factors like temperature, state of charge (SOC ~30ā50% for fresh cells), and measurement tools. Lower IR generally means better efficiency (less heat, higher discharge rates), but all these values are low for 314Ah LFP cells, indicating high-quality Grade A (or HSEV/EV-grade) products.
Confirmed Internal Resistance Specs
Based on official datasheets and verified seller data:
| Manufacturer/Model | Nominal Capacity | Initial IR (AC, 1 kHz) | Typical Real-World Range | Cycle Life (0.5C/0.5C) | Key Notes |
|---|---|---|---|---|---|
| EVE MB31 | 314Ah | ā¤0.18 mĪ© (±0.05 mĪ©) | 0.16ā0.23 mĪ© | ā„8,000 cycles | Newer high-density evolution of EVE’s 304Ah line; optimized for ESS with low heat generation. Tested capacities often exceed 330Ah. |
| EVE LF304 | 304Ah | ā¤0.15 mĪ© (±0.05 mĪ©) | 0.14ā0.20 mĪ© | ā„4,000 cycles | Older high-power model; slightly lower capacity but prioritized for EV/high-discharge apps. IR can appear lower due to thicker electrode coatings. |
| REPT (CB75/CB71) | 314Ah | ā¤0.23 mĪ© (±0.05 mĪ©) | 0.20ā0.25 mĪ© | ā„8,000 cycles | Focuses on “Wending” tech for space efficiency; higher IR but excellent thermal stability and 95%+ efficiency at 0.5P discharge. |
These values come from EVE and REPT official datasheets, with real-world ranges from independent tests (e.g., DIY solar forums and battery resellers). The LF304’s lower IR reflects its design for power delivery, while REPT’s slightly higher value trades off for enhanced safety and longevity in stationary storage.
Why Variations in Internal Resistance Between Manufacturers?
Internal resistance in LFP cells arises from ohmic (electrolyte/connector) and polarization (electrode/ion diffusion) components. While all LFP cells use the same base chemistry (LiFePO4 cathode, graphite anode, liquid electrolyte), manufacturers like EVE and REPT optimize differently, leading to IR differences of 0.03ā0.08 mĪ©. Here’s a breakdown of key factors:
- Electrode Design and Material Choices:
- Particle Size and Coating Thickness: Finer cathode particles or thinner coatings (e.g., EVE LF304’s high-power focus) reduce ion diffusion paths, lowering polarization resistance (~0.10ā0.15 mĪ© contribution). REPT’s “double-high” solid-liquid interface uses coarser particles for stability, slightly raising IR but improving cycle life.
- Tab Configuration: More/wider current collectors (tabs) shorten electron paths. EVE MB31 uses stacked/wound hybrids with more tabs, achieving ~0.18 mĪ©. REPT’s top-to-bottom “Wending” tech maximizes space but can add ~0.05 mĪ© due to longer internal paths.
- Manufacturing Processes and Quality Control:
- Assembly Uniformity: Variations in electrode alignment, electrolyte filling, or welding introduce inconsistencies. EVE’s highly automated lines yield tighter IR tolerances (±0.05 mĪ©), while REPT emphasizes safety testing, which may allow a broader range.
- Grade and Sorting: All are Grade A, but “HSEV” (high-safety EV) variants (common for these) are sorted for low IR. Subtle batch differences (e.g., electrolyte additives for thermal runaway prevention) can shift IR by 10ā20%.
- Optimization Trade-Offs for Application:
- Power vs. Energy Focus: LF304 (EVE) targets EVs with high C-rates (up to 1C continuous), needing ultra-low IR for minimal voltage sag. MB31 balances ESS longevity. REPT prioritizes stationary storage, where higher IR is acceptable for better abuse tolerance (e.g., overcharge resistance up to 270°C).
- Energy Density Enhancements: Higher-density cells (e.g., MB31’s 173 Wh/kg) pack more active material, potentially increasing resistance slightly if not offset by innovations like REPT’s 7%+ space utilization boost.
- Measurement and Environmental Factors:
- Test Conditions: Specs use fresh cells at 25°C and ~30% SOC. Real measurements (e.g., your 0.23 mĪ© for REPT) may vary with toolsāuse a 1 kHz AC meter for accuracy. Temperature swings (±10°C) can change IR by 20%.
- Aging and Degradation: IR rises ~50ā150% over life (faster in LFP than NMC), but your values suggest new cells.
Overall, these variations (20ā50% relative difference) are normal and don’t indicate defectsā they’re engineered for specific strengths. For ESS, REPT’s higher IR means ~2ā5% more heat at 0.5C but superior safety. EVE’s lower IR suits high-draw apps like inverters.
Recommendations
- Matching Cells: For packs, match IR within 0.05 mΩ to avoid imbalances (use a calibrated meter like YR1035+).
- Testing: Discharge at 0.2C to verify capacity (>310Ah expected) and monitor IR over cycles.
- Sources: Download full datasheets from EVE/REPT sites or resellers like GobelPower for curves. For comparisons, check ECO Teardown’s aggregated specs.
Conclusion
Not all LFP cells are made equally, they are optimised for slightly different applications. We choose the best balance and allow you to make a decision based on these factors.
In most cases, using EVE or REPT for the high majority of cases, will make little difference, but for small 12v inverter applications attached to a 3000w Inverter, EVE LF304 might be most suitable if you are looking for high power continuous applications, Either way its likely you will see thousands of cycles .
In reality, most people size their battery appropriately if budget allows, we would recommend 2 x 12v 314ah batteries for those looking to pull 3000w regularly, this might be for cooking, microwaves or even small Air conditioning systems.
Who is Cornex – Is it the next EVE, CATL or REPT ?
What is Cornex
- CORNEX is a China-based battery manufacturing & technology company focused on lithium-ion batteries.
- Their product lines include traction batteries (for EV, commercial vehicles, construction machinery etc.), energy storage systems (ESS), and energy management systems.
- Their R&D spans multiple chemistries and product types: lithium-ion, solid-state, sodium-ion, LMFP (Lithium Manganese Iron Phosphate), cylindrical cells etc. en.cornexbattery.com
Manufacturing, Scale & Technology
Factory / Plants & Capacity
- They have three main bases in Xiaogan, Wuhan and Yichang.
- Their effective production capacity (as of recent reporting) exceeds 100 GWh.
- They have mass production capabilities for advanced battery cells: for example, the 472Ah energy storage cell started mass production in Xiaogan.
Technology & Manufacturing Efficiency
- Their āsmart factoryā / intelligent manufacturing approach aims to use high automation (automation rate >98%), digitalization (tracking from materials to sale), and AI, big data, cloud, VR/AR for process monitoring
- They claim āless than 5,000 m² plant area per GWhā of capacity, which is a measure of land/space efficiency.
- Their R&D output is considerable: thousands of patents filed globally, dozens of products, many certifications.
Recent Breakthroughs & Products
- 472Ah battery cell: Mass production underway. Some specs: ~1,510.4 Wh per unit, energy density ~195 Wh/kg. Also high cycle life (15,000 cycles at 35°C).
- 688Ah ES (Energy Storage) battery cell: A super-large capacity cell, with volumetric energy density exceeding 430 Wh/L, gravimetric nearing 200 Wh/kg. Over 10,000 cycles, safety features like double-sided ceramic separators etc.
- Their containerized-storage systems (e.g. āM5ā 5MWh 20-foot container) for large energy storage applications. en.cornexbattery.com
Available Products
Currently the 100ah, 200ah and 314ah are the products we will be most interested in. Specifically we like the 314ah cell. It offers a EVE or CATL quality product, with high cycle life and great internal resisitance. This cell offers us a price advantage of about $200 per battery, Which may not sound like much, but at the same quality, its a no brainer, if competition in the area is weak, then EVE may not choose to be competitive which puts us all at a disadvantage in the future. We have found that EVE is now commanding a premium price, and the value is not true.
You can think of this like Duracell vs Energizer vs eveready in AA batteries if they all make a 100% equivalent battery product, and they last for the same or better, then its no longer an intelligent choice to preference a brand over the quality and value. Competition is important and so we will be looking for your support while we take Cornex product and use it regularly to ensure competition in the industry.
314 Ah Cell (Conergy Ļ 314Ah / PF173-314A)
This is one of Cornexās flagship cells for energy storage (ESS) applications.
Key specifications:
| Parameter | Typical / Market Spec |
|---|---|
| Nominal Voltage | ~ 3.2 V |
| Capacity | ~ 314 Ah |
| Internal Resistance | ā 0.17-0.19 mĪ© |
| Cycle Life | ~ 8000 cycles (to ~80-65 % capacity, depending on spec) |
| Charge / Discharge Rates | Standard 1C / some pulse up to ~2C (short bursts) in some specs; continuous discharge is modest. |
| Temperature Performance | Discharge: -20 °C to ~ 55 °C; Charge: 0-55 °C |
| Physical Size / Weight | ~5.5-6 kg; dimensions ~ 174.4 Ć 71.5 Ć 207.2 mm |
What makes the 314 Ah special / strengths:
- High capacity per cell ā fewer cells needed for a given ESS capacity, savings in BMS, interconnects, weight per kWh.
- Low internal resistance ā less voltage drop under load, better efficiency, less heat.
- Good cycle life (8,000+ cycles) helps with lifespan and lower cost per cycle.
Strategic Moves & Competitive Position
- Cornex is executing a dual strategy: ESS + EV batteries. So not just large stationary storage, but also vehicle traction batteries.
- They are moving into or expanding in overseas markets: They have technical/service networks in ~15 countries/regions.
- They have secured major EV battery contracts, e.g. over 30 GWh nomination from Dongfeng Liuzhou Motor.
- They are pushing safety, green-manufacturing credentials: designated a āNational-Level Green Factoryā by China’s MIIT.
Price & Value Edge / What Gives Them Advantage
From the data, here are the levers that seem to give CORNEX an edge in price / cost versus value:
- Scale: With >100 GWh capacity, large plants, mass production of advanced cells, they get larger economies of scale. Fixed costs get spread over more output.
- Efficiency / Automation / Digitalization: Very high automation, smart factory technologies reduce labor cost, defect rates, improve yield. Tracking materials ā less waste, better process control.
- Technological Innovation: Their newer products (472Ah, 688Ah, etc.) boost energy density, cycle life, and capacity per cell & per container, which helps reduce $/kWh over life. Similarly features like ācathode pre-lithium,ā āhigh-temperature durabilityā help add value.
- Space and Land Efficiency: Claiming less plant area per GWh is a sign of cost savings in land, infrastructure.
- Green credentials / regulatory compliance: Being certified āgreen factory,ā meeting often tight safety and environmental standards helps them in both domestic regulation and overseas tenders (where safety / environmental compliance can be part of the cost). Adds value to customers.
- Integrated supply / localization: Their R&D across multiple chemistries, in multiple product types, their strong IP position, and a broad product portfolio means they can serve many segments, adapt to demand, potentially reduce supply chain risk.
- Speed to market & continuous iteration: Example: They take existing 314Ah lines, use ātechnology reuse + shared capacityā to faster develop 472Ah. So leveraging existing manufacturing investment rather than building totally new lines for each innovation.
Possible Weaknesses or Challenges (for balance)
To round out the picture, also useful to think of what could limit them:
- Battery raw materials (lithium, cobalt, etc.) are globally volatile; cost increases can eat margin even for large players.
- Overseas competition is intensifying (CATL, BYD, other Chinese battery firms, as well as international players). So staying ahead in R&D, safety, and regulations is critical.
- For exports, ensuring that certifications (UL, IEC, safety, environmental) are all in place can slow things or add cost.
- Logistics and localization costs (shipping heavy battery systems, or assembling in overseas markets) can erode advantages.
- Long-term safety and degradation are always concerns; promises like ā15,000 cycles at 35°Cā need long-term tests and customer trust.
We need solar and battery installers
We need solar and battery installers please contact us if you are interested in working with us, to power Australians with good value, high quality batteries and solar systems
Typical CEC Systems
Hybrid Inverter
5kw-16kw (Single Phase) or 5-30kw (Three Phase)
CEC Approved batteries
Some of our most popular are
RUIXU 16kWh batteries – here
Dyness Powerbox Pro – here
Other batteries including High Voltage from various manufacturers
Please fill out this form if you are SAA qualified and have an interest in becoming a partner with us.
