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NOMAD Increases Voyager Fleet Energy Storage by up to 56%, Bringing Eagle and Falcon to 2.025 MWh

(Very Positive)
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NOMAD Power Solutions (Nasdaq: NMAD) launched the third-generation Voyager mobile energy storage fleet, increasing usable capacity without changing footprint or power.

Voyager Eagle and Falcon now provide 2.025 MWh each (up 56%), and Voyager Hawk 1.0 MWh (up 51%), supporting longer runtimes for data centers, disaster response, and industrial loads.

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Positive

  • Voyager Eagle capacity increased from 1.3 MWh to 2.025 MWh, up 56%
  • Voyager Falcon capacity increased from 1.3 MWh to 2.025 MWh, up 56%
  • Voyager Hawk capacity increased from 664 kWh to 1.0 MWh, up 51%
  • Extended runtimes: Eagle ~2.0 hours at 999 kW; Falcon ~4.0 hours; Hawk ~2.0 hours
  • Higher energy density achieved while keeping trailer footprint, power rating, and sub-one-hour deployment unchanged
  • Third-generation capacity upgrade made standard on all new Voyager units

Negative

  • None.

Market reaction after Voyager fleet capacity upgrade: NMAD +13.61% in the Jul 8 session

+13.61%
13 alerts
+13.61% Session close to close
+8.3% Peak Tracked
-3.4% Trough Tracked
$106.06M Market Cap
1.0x Rel. Volume

In the Jul 8 session, NMAD gained 13.61%, reflecting a significant positive market reaction. Argus tracked a peak move of +8.3% during that session. Argus tracked a trough of -3.4% from its starting point during tracking. Our momentum scanner triggered 13 alerts that day, indicating notable trading interest and price volatility.

Data tracked by StockTitan Argus on the day of publication.

Market Context

The stock surged +13.6% in the session following this news. A strong upside move would be consistent...
Analysis

The stock surged +13.6% in the session following this news. A strong upside move would be consistent with investors rewarding the Voyager fleet’s over 50% capacity uplift into a market projected to reach $18.79 billion by 2036, while future dilution or execution setbacks could still temper enthusiasm.

Key Figures

Voyager Eagle storage: 2.025 MWh Voyager Falcon storage: 2.025 MWh Voyager Hawk storage: 1.0 MWh +5 more
8 metrics
Voyager Eagle storage 2.025 MWh third-generation standard usable storage
Voyager Falcon storage 2.025 MWh third-generation standard usable storage
Voyager Hawk storage 1.0 MWh third-generation standard usable storage
Eagle/Falcon capacity increase 56% gain vs prior 1.3 MWh configuration
Hawk capacity increase 51% gain vs prior 664 kWh configuration
Data center BESS market 2026 $4.96 billion projected global battery energy storage market size
Data center BESS market 2036 $18.79 billion projected global battery energy storage market size
Market CAGR 14% projected compound annual growth rate 2026–2036

Key Terms

bess, lfp, nfpa 855, ul1973, +1 more
5 terms
bess technical
"who increasingly require BESS solutions that deliver more usable energy"
BESS stands for Battery Energy Storage System, a technology that stores electricity for later use. Think of it as a large rechargeable battery that can hold excess power generated during times of low demand and release it when usage is high, helping balance supply and demand. This is important for investors because it supports the stability of energy grids, enables the integration of renewable sources, and can create new opportunities for profitability in the energy market.
lfp medical
"integrating its prismatic LFP pack architecture to reach higher energy density"
LFP stands for lithium iron phosphate, a type of rechargeable battery chemistry used in electric vehicles and energy storage systems. It trades slightly less energy density for greater safety, longer cycle life and lower cost, so investors watch LFP adoption like choosing a durable, affordable tool instead of a high-performance but fragile one; changes in its use can affect battery makers, automakers and energy-storage economics.
nfpa 855 regulatory
"Units are designed to align with NFPA 855 fire safety codes and UL1973"
NFPA 855 is a widely adopted safety standard that sets how large battery energy storage systems (ESS) must be designed, sited, installed and protected to reduce fire and safety risks. Think of it as a building code for big batteries: it influences permitting, insurance, construction costs and how quickly projects can move from plan to operation, so compliance affects investor risk, timelines and long‑term asset value.
ul1973 regulatory
"align with NFPA 855 fire safety codes and UL1973 certifications"
UL 1973 is a safety standard published by Underwriters Laboratories that sets requirements for rechargeable battery systems used in stationary storage, vehicle auxiliary power, and similar applications. Think of it as a building code for batteries: meeting it shows a product has passed tests for electrical, mechanical and fire safety, which matters to investors because certification affects market access, legal risk, insurance costs and customer confidence.
ul9540a regulatory
"with LFP systems undergoing UL9540A testing."
A safety test standard that checks whether a battery or energy storage system will catch fire and then spread that fire to nearby units; it subjects the system to an internal cell failure and measures how heat, gases, and flames behave. Investors care because passing the test makes installations easier to approve, lowers insurance and liability risk, and can affect a product’s market acceptance and resale value—think of it as a fire-safety stress test for batteries.

AI-generated analysis. How Rhea-AI works. Not financial advice.

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Boca Raton, Fla., July 08, 2026 (GLOBE NEWSWIRE) -- NOMAD Power Solutions, Inc. (“NOMAD” or the “Company”) (Nasdaq: NMAD), through its wholly owned subsidiary, Nomad Transportable Power Systems Inc., today announced the third-generation of its Voyager mobile energy storage series, headlined by a fleet-wide energy storage capacity increase. The third-generation upgrade raises standard usable storage on the Voyager Eagle and Falcon to 2.025 MWh each, and on the Voyager Hawk to 1.0 MWh, delivering more than 50% additional energy on every model without changing footprint, rated power output, or sub-one-hour deployment time. The increased capacity is standard on all new Voyager units going forward.

The third-generation Voyager builds on NOMAD's partnership with Octillion Power Systems, integrating its prismatic LFP pack architecture to reach higher energy density in the same transportable, semi-trailer form factor. It reflects NOMAD's approach of continually improving the platform as battery technology advances, rather than tying customers to a single generation of hardware.

For data center and hyperscale operators, who increasingly require BESS solutions that deliver more usable energy without consuming additional site footprint or extending permitting and installation timelines, this near-doubling of stored energy within the same transportable trailer platform is a clear differentiator, enabling operators to secure significantly more backup runtime and load-support capacity per pad position without redesigning power infrastructure.

The global battery energy storage market serving data centers is projected to grow from approximately $4.96 billion in 2026 to $18.79 billion by 2036, reflecting a compound annual growth rate of roughly 14%, as AI and hyperscale computing workloads continue to drive demand for resilient, rapidly deployable backup power.

The latest generation builds upon Nomad's collaboration with Octillion Power Systems, utilizing advanced prismatic lithium iron phosphate (LFP) battery architecture to achieve substantially higher energy density within the same transportable semi-trailer platform. The enhancement reflects the Company's commitment to continually advancing its mobile energy storage technology as battery innovation evolves.

The Capacity Delta

The upgrade delivers a step change in stored energy across all three Voyager models. Power ratings and voltage are held constant at 480V, so customers gain longer runtime and greater application flexibility from the same deployable unit.

  • Voyager Eagle: Storage increases from 1.3 MWh to 2.025 MWh, a gain of 0.725 MWh (up 56%). Rated power output remains 999 kW.

  • Voyager Falcon: Storage increases from 1.3 MWh to 2.025 MWh, a gain of 0.725 MWh (up 56%). Rated power output remains 500 kW.

  • Voyager Hawk: Storage increases from 664 kWh to 1.0 MWh, a gain of 336 kWh (up 51%). Rated power output remains 500 kW.

For end users, the added capacity translates directly into extended runtime at full load. The Voyager Eagle now delivers roughly 2.0 hours of discharge at its full 999 kW output, up from approximately 1.3 hours. The Voyager Falcon extends to roughly 4.0 hours at 500 kW, up from approximately 2.6 hours. The Voyager Hawk extends to roughly 2.0 hours at 500 kW, up from approximately 1.3 hours.

What the Increase Enables

The additional energy positions the Voyager fleet for longer-duration demand-charge management, extended emergency and disaster-response coverage, and larger events and industrial loads that previously required multiple units or diesel backup. Because power, footprint, and deployment time are unchanged, the same Voyager applications benefit from the higher capacity with no change to siting, transport, or interconnection requirements, and no compromise to the reliability customers depend on. Every unit remains transportable, autonomous, and ready in under one hour.

“This is about giving our customers more out of the exact same unit. Same footprint, same rated power, same sub-hour deployment, but over 50% more stored energy on every Voyager model,” said Chris McKay, Chief Operating Officer at NOMAD. “That extra runtime is the difference between covering a peak and covering an entire event, or between a partial and a full disaster response. It reflects the energy density we unlocked with our LFP pack architecture, and it is available across the fleet today.”

Prismatic LFP

The Voyager fleet uses Octillion's prismatic LFP cell architecture with integrated liquid cooling and a dedicated chiller and HVAC system, maintaining performance across ambient temperatures. Units are designed to align with NFPA 855 fire safety codes and UL1973 certifications, with LFP systems undergoing UL9540A testing.

About NOMAD Power Solutions, Inc.

Founded in 2020, NOMAD, formerly LIXTE Biotechnology Holdings, is an AI energy infrastructure equipment and services platform focused on supporting the rapidly growing power and infrastructure requirements of artificial intelligence, cloud computing, and hyperscale data center operators. The Company is focused on capitalizing on the accelerating demand for reliable, scalable, and efficient energy infrastructure solutions driven by the global expansion of AI.

Historically, LIXTE Biotechnology Holdings, Inc. focused on the development of innovative cancer therapies and medical technologies. The Company continues to maintain and advance these oncology and medical technology assets while executing its primary strategic focus through NOMAD Power Solutions.

For more information, please visit https://ir.nomadpower.com/.

Forward-Looking Statements

The foregoing material may contain “forward-looking statements” within the meaning of Section 27A of the Securities Act of 1933 and Section 21E of the Securities Exchange Act of 1934, each as amended. Forward-looking statements include all statements that do not relate solely to historical or current facts, including without limitation statements regarding the Company’s product development and business prospects, and can be identified by the use of words such as “may,” “will,” “expect,” “project,” “estimate,” “anticipate,” “plan,” “believe,” “potential,” “should,” “continue” or the negative versions of those words or other comparable words. Forward-looking statements, include, but are not limited to, the Company’s third-generation technology for its Voyager mobile energy storage series. These forward-looking statements are based on information currently available to the Company and its current plans or expectations and are subject to a number of risks and uncertainties that could significantly affect current plans. Should one or more of these risks or uncertainties materialize, or the underlying assumptions prove incorrect, actual results may differ significantly from those anticipated, believed, estimated, expected, intended, or planned. Although the Company believes that the expectations reflected in the forward-looking statements are reasonable, the Company cannot guarantee future results, performance, or achievements. Except as required by applicable law, including the securities laws of the United States, the Company does not intend to update any of the forward-looking statements to conform these statements to actual results.

For more information about NOMAD, ir.info@nomadpower.com, contact:

General Phone: (631) 830-7092; Investor Phone: (888) 289-5533

Or

PondelWilkinson Inc. Investor Relations, pwinvestor@pondel.com
Roger Pondel: (310) 279-5965; Laurie Berman: (310) 279-5962

Stephen Johnson, Media, sjohnson@nomadpower.com


FAQ

What energy storage upgrade did NOMAD (Nasdaq: NMAD) announce for Voyager Eagle and Falcon on July 8, 2026?

NOMAD increased Voyager Eagle and Falcon usable storage to 2.025 MWh each, up 56% from 1.3 MWh. According to NOMAD, this third-generation upgrade is standard on all new Voyager units and preserves the existing trailer footprint and rated power output.

How did NOMAD increase energy storage capacity in the Voyager fleet without changing the trailer footprint?

NOMAD used prismatic lithium iron phosphate (LFP) pack architecture from Octillion to raise energy density. According to NOMAD, this allows up to 56% more stored energy in the same transportable semi-trailer, keeping deployment time under one hour and maintaining 480V power ratings.

How much runtime do NOMAD Voyager Eagle, Falcon, and Hawk units provide after the 2026 upgrade?

Voyager Eagle now delivers about 2.0 hours at 999 kW, Falcon 4.0 hours at 500 kW, and Hawk 2.0 hours at 500 kW. According to NOMAD, these runtimes rise from roughly 1.3, 2.6, and 1.3 hours respectively, with no footprint or power changes.

What applications does the 2026 Voyager energy storage increase enable for NOMAD customers (NMAD)?

The added energy supports longer demand-charge management, extended disaster response, and larger events or industrial loads. According to NOMAD, customers gain more backup runtime and load-support capacity per pad position without redesigning power infrastructure, permitting, or interconnection at data centers and hyperscale sites.

How does NOMAD’s Voyager upgrade relate to the growing data center battery energy storage market?

NOMAD’s higher-capacity Voyager units target data center operators needing more energy without extra footprint or delays. According to NOMAD, the global data center battery energy storage market is projected to grow from about $4.96 billion in 2026 to $18.79 billion by 2036.

What safety and thermal management features are included in NOMAD’s upgraded Voyager LFP systems?

Voyager units use prismatic LFP cells with integrated liquid cooling, a dedicated chiller, and HVAC for temperature control. According to NOMAD, systems are designed to align with NFPA 855 fire safety codes and UL1973 certifications, with LFP undergoing UL9540A testing.