Role Overview
We are seeking a motivated intern to support our Machine Learning (ML) and Artificial Intelligence (AI) initiatives. The intern will assist in data collection, analysis, and processing for pilot projects. This role offers hands-on experience in applying data science techniques to real-world manufacturing and quality challenges.
Key Responsibilities
Desired Qualifications
Preferred Qualifications
What We Offer
Bloom Energy provides on-site clean power for businesses and data centers using hydrogen fuel cells in microgrids. The core idea is to convert hydrogen into carbon-free electricity, while the system can also produce clean hydrogen and a pure CO2 stream for energy-efficient carbon capture. It offers fuel-flexible options and initiatives to use greenhouse gases for clean energy, reducing dependence on dirty fuels and strengthening decarbonization. The goal is to deliver reliable, affordable energy, lower emissions, and support decarbonization through hydrogen and carbon capture solutions.
Company Size
1,001-5,000
Company Stage
IPO
Headquarters
San Jose, CA
Founded
2001
See people who can refer or advise you
Help us improve and share your feedback! Did you find this helpful?
Supercapacitors for Data Centers: case studies, plans & Partnerships. October 28, 2026 Supercapacitors are seeing increasing interest as energy storage devices within AI data center power architectures. However, the application is still emerging, and case studies and deployments remain limited. IDTechex's recent report "Supercapacitors for Data Centers 2027-2037: Technologies, Applications, Players and Forecasts", predicts more than 70 GW of cumulative supercapacitor power supply will be installed in data centers across the world. This article provides an overview of early developers of the technology and potential partnerships. Player announcements: who is targeting the market? A number of supercapacitor players have already pivoted to better target the AI data center market, developing products aimed specifically at installation in racks or in UPS facilities, or exploring deployment of supercapacitor cells within backup units and data center power infrastructure. These include: * Skeleton Technologies: developed hybrid and electric double-layer capacitors (EDLCs), including Graphene battery backup unit (BBU) and SuperBattery container. * Eaton: developed uninterruptible power supply (UPS) modules and racks to complement BBUs. Developed 800V data center power architecture reference example including supercapacitors. * VinaTech: scaling up cell and module production to target AI data centers, including partnerships with Bloom Energy, a fuel cell developer. * LiCAP: developing modules for UPS and power stabilization at rack-scale. Quotes need for supercapacitors at 1:10 ratio compared to batteries in BBUs for AI data centers. * Capacitech: developing systems and module designs rather than cells, with cable-form factor aimed at data center retrofitting. * Panasonic: recently announced development of capacitor-based battery backup units aimed at data centers, with plans to begin production in 2027. Types of partnerships and varying disclosure. As of 2026, there is minimal publicly available information regarding supply agreements between supercapacitor product developers and data center players directly. This may be due to limited commercial deployment at scale, with data center players currently validating and testing supercapacitor options within data center power architectures, or it may be due to the current focus of hyperscale data centers on data center construction rather than optimization of power architecture, with optimization becoming more of a priority over the next 1-3 years. Despite this, there are several partnerships/collaborations of interest announced by supercapacitor players developing products for the AI data center industry. These generally take two forms: * Partnerships between supercapacitor developers and power infrastructure developers to produce more complete, easily integrated products. * Partnerships/project collaborations to validate and show proof-of-concept of supercapacitor integration. Specific examples of both of these partnerships are explored in detail in IDTechEx's recent report: "Supercapacitors for Data Centers 2027-2037: Technologies, Applications, Players and Forecasts". Development partnerships. Examples of development partnerships combine supercapacitor cell or technology developers with power architecture developers or systems developers. Musashi Energy Solutions' partnerships Flex and DG Matrix are good examples. Musashi Energy Solutions is a developer of hybrid supercapacitor cells, based in Michigan. The company partnered with Flex in 2024 to develop capacitor-based energy storage systems (CESS). These systems, taking the form of 18.3" x 31" x 1.73 " trays were released in 2025 and explicitly developed to target AI data centers. Musashi Energy Solutions also announced another collaboration in March 2026 with DG Matrix, integrating Musashi Energy Solutions' ESS400 Energy Storage System and DG Matrix's Interport, a multi-port solid-state transformer. The purpose of this collaboration was to target large AI power fluctuations, preventing equipment damage and degradation and reducing grid instability, which IDTechEx identifies as a major challenge for AI data centers. IDTechEx conclusions. In IDTechEx's assessment, small-scale supercapacitor deployments in data centers have already occurred, and it is likely that the market will shift from the validation stage to wider scale commercial deployment in the next 1-2 years, with 2026 marking a pivot point in the industry. Refocusing efforts by supercapacitor players to better target AI data centers, as well as direct statements by supercapacitor and power infrastructure players have shown healthy optimism for supercapacitor potential, though it remains to be seen at what scale this will be realised. For more detailed analysis of the role of supercapacitors in AI data centers and the emerging market, see IDTechEx's recent report: "Supercapacitors for Data Centers 2027-2037: Technologies, Applications, Players and Forecasts".
Simply Wall St has named three growth stocks to watch in October 2026, as AI-related cybersecurity threats push governments and businesses to upgrade systems and data centres. Bloom Energy makes on-site fuel cell and electrolyzer systems and has a market cap of $57.15 billion. It earns about $3.83 billion from electric equipment, with roughly $3.58 billion from the US. Its outlook depends on the timing and economics of large-scale deployments. Micronics Japan, with a market cap of JPY 443.9 billion, makes semiconductor probe cards. Demand is tied to memory and AI chips, though test equipment cycles pose a risk. USA Rare Earth, valued at $3.5 billion, plans to mine and separate rare earth oxides from Round Top Mountain. Its path to cash flow hinges on access to capital.
Simply Wall St has named three growth stocks it says combine strong earnings potential with balance sheets that can absorb higher energy costs. The picks come as the Federal Reserve weighs interest rates with inflation above target and oil prices swayed by geopolitical risks. Bloom Energy makes on-site solid oxide fuel cell systems. It reports about $3.83 billion from electric equipment and has a market cap of roughly $57.15 billion. NVIDIA earns about $275.4 billion from Compute & Networking and $27.6 billion from Graphics. Its market cap is roughly $5,094.1 billion. USA Rare Earth mines and processes rare earth and critical minerals for sectors including semiconductors, data centres, and defence. Its market cap is about $3.5 billion.
Fuel cells power the AI data center boom as grid constraints push hyperscalers toward on-site generation. October 24, 2026 Fuel cells are gaining traction among US hyperscalers racing to build data centers for the AI boom but struggling with grid constraints to secure quick and reliable power. Energy research firm Rystad Energy projects investments in fuel cells for data centers to rise to about $30 billion by 2030 from $2.8 billion in 2025, a trajectory that reflects both the urgency of the AI buildout and the stubborn limits of the American electricity grid. A fuel cell generates electricity through a chemical reaction between a fuel, such as natural gas or hydrogen, and oxygen, converting the fuel's energy directly into electricity rather than burning it. That distinction matters for data center operators who need power quickly, cleanly and without waiting years for a grid interconnection. The scale of the problem is easy to underestimate. Data centers require massive amounts of reliable electricity to run computing equipment and cooling systems around the clock, and linking large electricity loads to the US grid can take three to six years, according to Rystad estimates. That timeline is incompatible with the pace at which AI companies are trying to deploy capacity. The result is a forcing function: developers are exploring on-site power sources that can be permitted, installed and switched on in months rather than years. Rystad predicts that about 40% of projected US data-center capacity in 2030 could pursue dedicated on-site power rather than rely entirely on the grid, a shift that would fundamentally change how the industry thinks about energy procurement. Bloom Energy is the most visible beneficiary of this shift. The company operates solid-oxide technology ready for 100% pure hydrogen, while FuelCell Energy uses molten carbonate technology capped at 40% hydrogen blends, even as both systems are fuel-flexible. Bloom CEO KR Sridhar offered a concrete illustration of the speed advantage on a post-earnings call on Thursday. "We announced our first project with Oracle and delivered power to their Utah site in less than two months," he said. "We are achieving the same thing with Nebius in New Jersey. We were able to get planning board approvals for our fuel cells within three months of signing the contract." Those timelines are striking when set against the multi-year wait for grid interconnection, and they explain why operators under pressure to bring AI capacity online are increasingly willing to pay a premium for on-site generation. The financial results tell a similar story. Bloom's third-quarter revenue surged 138% to $1.24 billion, and the company posted net profit of $250.3 million, compared to a year-earlier loss of $23.1 million. It raised its 2026 revenue forecast to $4.4 billion to $4.6 billion. Oracle intends to procure up to 2.8 gigawatts of Bloom fuel-cell systems, of which 1.2 gigawatts has been contracted. Those figures suggest that fuel cells have moved from pilot projects to serious infrastructure commitments, and that at least one major cloud provider has decided the technology is reliable enough to anchor a significant portion of its power strategy. There is an environmental argument here that deserves careful scrutiny. Fuel cells produce lower local emissions than conventional gas-fired generation because they avoid combustion within the stack. That is a genuine advantage for air quality and for permitting in populated areas, where opposition to conventional generation can delay projects indefinitely. But the climate picture depends heavily on the fuel source. Natural gas still produces carbon dioxide, and hydrogen supply remains limited and expensive in most US markets. Bloom's ability to run on 100% pure hydrogen is a promising capability, yet the infrastructure to deliver that hydrogen at scale is not yet in place. For now, most fuel cell deployments will run on natural gas, which means they are cleaner than the alternatives at the point of generation but not emissions-free. The grid itself is another consideration. On-site generation solves a timing problem for individual operators, but it does not address the broader question of whether the US electricity system can support the AI buildout over the long term. If a large share of new data-center capacity bypasses the grid entirely, utilities may find themselves with less revenue to fund the transmission and distribution upgrades that other customers depend on. There is also the risk that on-site generation becomes a way for large technology companies to insulate themselves from grid reliability problems while smaller customers bear the costs of an aging system. Those equity questions are not yet central to the fuel cell conversation, but they will become harder to ignore as the technology scales. For anyone who has watched the energy industry cycle through hype and disappointment, the current enthusiasm for fuel cells carries a familiar risk. The technology has been promising for decades, and previous waves of interest faded when subsidies expired or natural gas prices shifted. What is different this time is the demand signal. AI data centers are not a speculative market; they are being built at extraordinary speed by companies with enormous balance sheets, and those companies need power now. That urgency gives fuel cells a commercial foothold that earlier booms lacked. Whether that foothold becomes a permanent position or a temporary bridge to grid-scale renewables and storage will depend on hydrogen economics, permitting reform and the willingness of hyperscalers to keep paying a premium for speed. The market has clearly made a bet, and the next few years will reveal whether it was the right one. Kristina roberts. Kristina R. is a reporter and author with a broad editorial focus, covering stories across arts and culture, entertainment, celebrity and influencer culture, business, music, technology, sports, lifestyle, and other topics shaping contemporary life. Her work spans both emerging trends and established industries, bringing together stories from across the worlds of media, creativity, innovation, and popular culture.
Bloom Energy stock fell 30% in under a month while Estimates Rose. Here's where it could go by 2030. Last updated Oct 24, 2026 Key stats for Bloom Energy stock. * Current Price: $193.30 * Target Price (Mid): ~$657 * Street Target: ~$287 * Potential Total Return: ~240% * Annualized IRR: ~34% / year What Happened? Bloom Energy (BE) carried a forward P/E of around 78x on September 30. At the October 23 close of $193.30, it was around 40x. Two moves did the work in roughly equal measure: the stock fell 30.2%, and TIKR's next-twelve-months normalized EPS figure rose from around $3.50 to around $4.90. AI power stocks sold off on October 22 as Meta Platforms' (META) results reignited AI spending concerns, and Bloom closed at $217.77 before its report. It fell another 11.24% on October 23 despite record quarterly revenue of $1.24 billion and a third 2026 guidance raise, while GE Vernova (GEV) slipped 1.50%. Coverage tied the drop to a $27 million operating cash outflow, which TIKR covered that day, plus valuation and broader AI sentiment. Q3 Operating Income Topped All of 2025, Which Is Why Estimates Rose. Product revenue crossed $1 billion for the first time. Non-GAAP operating income reached $285.7 million, up more than 500%, while non-GAAP operating expenses grew 26% against revenue growth of 138.1%. Non-GAAP operating margin hit 23.1%, and Q3 operating income alone exceeded Bloom's total for all of 2025. "That is the operating leverage embedded in our model now showing up in the results," CFO Simon Edwards said on the October 22 call. Non-GAAP product gross margin rose 120 basis points from Q2 to 38.4%, even as Bloom ramped new lines and expedited deliveries. Management raised non-GAAP operating income guidance to $960 million to $1.03 billion. Bloom funded $231 million of year-to-date capex from operations and ended September with $2.5 billion of cash, though its convertible notes leave TIKR's LTM net debt at $299.89 million. At around 40x forward earnings, the stock now trades about level with GE Vernova's around 39x on TIKR's Competitors page. The Street models Bloom's revenue compounding around 86% a year from 2025 to 2027. TIKR tracks 29 analysts on Bloom Energy. How many say "Buy"? See the full breakdown of Buy, Hold, and Sell ratings on Bloom Energy, along with Wall Street's revenue and earnings estimates, all in one place. More than 500,000 investors use TIKR to research stocks like this one. See Bloom Energy's Analyst Ratings Sridhar Is Already Preparing for Life After 5 Gigawatts. Asked why Bloom is expanding in Fremont now, CEO K.R. Sridhar said the 5-gigawatt milestone is in sight, and Bloom must prepare for what follows. He described adding capacity as a dial, not a step, and said Bloom will "never go past our headlights." Speed is the selling point. Sridhar said Bloom secured planning approvals for Nebius Group (NBIS) in New Jersey within three months of signing, and had the first block of power ready two months later. Utilities are another channel. On October 14, American Electric Power (AEP) announced plans to invest around $4 billion in a 702-megawatt fuel cell plant near Cheyenne, Wyoming. The plant will use Bloom technology to serve Google, owned by Alphabet (GOOGL), and is expected to be fully operational by the end of 2028. Bloom already had an agreement to supply AEP with up to 1 gigawatt of fuel cells. Two signals temper that. Street estimates put Q1 2027 revenue at around $1.43 billion, flat with the Q4 2026 estimate. That figure comes from fewer analysts, and Q1 2026 revenue of $751.05 million also trailed Q4 2025's $777.68 million. Sridhar said backlog is growing faster than revenue but declined to size it. Price targets split after the report: JPMorgan cut to $292, BTIG to $250 and Roth to $230, while Morgan Stanley raised to $335, per TheFly. TIKR Advanced Model Analysis. * Current Price: $193.30 * Target Price (Mid): ~$657 * Potential Total Return: ~240% * Annualized IRR: ~34% / year TIKR's mid case serves as the central scenario here, not a forecast. It reaches around $657 by December 31, 2030, more than twice the Street's 12-month mean target of around $287, which covers a much shorter horizon. For scale, the nine analysts forecasting 2030 put revenue at around $14.4 billion, up from $2.02 billion in 2025, with normalized net income margin near 31%. Revenue depends on hyperscaler and neocloud deliveries plus the utility channel. Margin depends on the operating leverage Q3 showed. The primary risk is growth slowing before margins finish expanding. Over 12 months, the Street mean sits about 48% above the close, and the Street's $97 low sits about 50% below it. Conclusion. Bloom set its 2026 outlook in February and reported Q4 2025 on February 5, 2026. Asked about backlog growth on the October 22 call, Sridhar said Bloom will give "exact guidance" at the start of the year. A 2027 revenue outlook at or above the Street's roughly $7 billion would suggest a 40x multiple is pricing a business still compounding. A lower range would argue the reset has further to run. So what is Bloom Energy stock actually worth? TIKR lets you forecast the future price of any stock in less than a minute. Just enter a few assumptions into TIKR's valuation model and see what Bloom Energy could be worth. Start from Wall Street consensus estimates, or adjust the inputs to reflect your own view of the business. It's free to use. Disclaimer: Please note that the articles on TIKR are not intended to serve as investment or financial advice from TIKR or its content team, nor are they recommendations to buy or sell any stocks. TIKR create its content based on TIKR Terminal's investment data and analysts' estimates. Its analysis might not include recent company news or important updates. TIKR has no position in any stocks mentioned. Thank you for reading, and happy investing! Table of Contents * What Happened? * Q3 Operating Income Topped All of 2025, Which Is Why Estimates Rose * Sridhar Is Already Preparing for Life After 5 Gigawatts * TIKR Advanced Model Analysis * Conclusion * So what is Bloom Energy stock actually worth? * Disclaimer: General Investing Join thousands of investors worldwide who use TIKR to supercharge their investment analysis.