Key Strategies for EV and Energy Storage OEMs

Range gets the spotlight. But efficiency wins the war. Leading OEMs approach EV energy efficiency as a system-level engineering discipline, not only focusing on using the biggest battery. Battery Architecture: Top-tier EVs leverage 800V systems to reduce heat loss, enable ultra-fast charging, & drive power efficiently. Cell chemistries are chosen strategically—balancing energy density, lifecycle cost, & thermal behavior. Power Electronics: Leading OEMs optimize inverters & motors for low resistance & high output. Vehicle Design: Sleek aerodynamics, structural integration, and lightweight materials reduce energy demand without compromising space, safety, or style. Regenerative Braking: Smart regen systems capture energy customized for urban stop-and-go or long-range cruising. One-pedal driving adds control & recovers energy instinctively. Thermal & HVAC Systems: Heat pumps, cabin preconditioning, & waste heat reuse are essential. Smart Software: AI-powered energy management, predictive routing, & dynamic drive modes balance performance, comfort, & energy use. Charging Strategy: Advanced charging logic optimizes power deliver & actively cools batteries. The OEMs who engineer for energy discipline define the future of electrification.

The challenges faced by Northvolt, ACC, and PowerCo shed light on crucial lessons for Western electric vehicle (#EV) original equipment manufacturers (OEMs) grappling with the complexities of battery technology and manufacturing. Here's a breakdown of the key takeaways: 1. **Dependency vs. Control**: - **Dependency:** Relying on external battery suppliers from Asia (mostly China) can expose OEMs to supply chain vulnerabilities and geopolitical risks. - **Control:** Investing in in-house battery development provides greater control over technology, supply chains, and quality, albeit at the cost of significant capital investment and expertise diversion from other critical areas like vehicle development and marketing. 2. **Technology Choice & Investment**: - The rapidly evolving battery landscape presents challenges in selecting the right technology to invest in, with the risk of backing outdated solutions, or Solid State far out solutions such as QuantumScape, Solid Power, Inc., SES AI Corp etc. 3. **Sustainability and Ethical Sourcing**: - Environmental considerations are paramount in battery production, with OEMs under pressure to ensure sustainable and ethical sourcing practices to minimize environmental impact. 4. **Competition**: - Asian dominance in the battery market poses a significant competitive challenge for Western OEMs, who need to swiftly catch up. This is almost an impossible mission. StoreDot is one example of a mitigation plan. The recent struggles faced by Northvolt, ACC, and Powerco emphasize the financial risks and technological hurdles in establishing a successful battery business, potentially discouraging heavy investments in internal battery production by OEMs. In response to these challenges, Western OEMs are exploring strategies such as battery partnerships, joint ventures, vertical integration, and government lobbying to navigate the shifting landscape of battery technology and manufacturing. As the automotive industry electrifies at a rapid pace, Western OEMs must carefully evaluate and implement bold strategies to secure their future amidst the intricate dynamics of the EV market.

The future won’t wait—and Europe’s auto industry must act decisively now. This week’s insightful Le Monde editorial lays bare a hard truth: Europe’s automotive sector is at an impasse—caught between short-term profit preservation, China’s bold EV momentum, and shifting global trade dynamics. The barriers to Europe’s electric transition aren’t technical, they're strategic. European carmakers have hesitated, prioritizing premium combustion models with high margins over mass-market electrification. Meanwhile, China has successfully leveraged affordability, scale, and vertical integration. The results speak volumes. Yet Europe can still pivot quickly, if it focuses decisively on these three high-impact strategies: 1. Secure Long-term Battery Supply at Scale Forge direct investments and strategic joint ventures with European gigafactories, locking down stable, cost-effective battery production. Battery supply security is fundamental to enabling mass EV adoption. 2. Rapidly Launch Mass-Market EV Models Accelerate the design, production, and market introduction of compact, affordable (€20-30k range) EVs aimed explicitly at volume adoption—not niche premium segments. Mass-market affordability is key to reaching critical scale quickly. 3. Accelerate Vertical Integration of Core EV Components Reduce dependence on external suppliers by integrating production of essential components—electric motors, power electronics, and software—within Europe’s OEM ecosystem. Vertical integration accelerates innovation, stabilizes supply chains, and boosts profitability. Europe doesn’t lack technology, talent, or resources. It lacks decisiveness. The transition to EVs isn’t a market failure—it's a leadership challenge. Let’s choose bold leadership over cautious hesitation. Link to full editorial (FR) : https://lnkd.in/eDdk3g65 #DRIVECO #EV #Policy #Leadership

Tesla was one of the first OEMs to diversify its battery chemistry. Here’s how they did it (and why it matters): 1. Multiple Battery Chemistries Tesla uses a mix of NCA, NMC, NMCA and LFP batteries. This allows them to tailor the battery chemistry to specific vehicle needs. 2. Global Supplier Network Tesla's supply chain is diverse and strategic: - NCA batteries are produced by Panasonic in Nevada—a long-standing partner since day one. - NMC batteries are now manufactured by Tesla in Texas. - NMCA comes from LG Energy Solution. - LFP batteries: They're produced by CATL in China. Tesla’s Shanghai factory acts as a key export hub. 3. Adaptability in Action Tesla’s strategy isn’t just about having multiple suppliers—it’s about agility and precision. Diversifying suppliers reduces risks and shields Tesla from disruptions, ensuring a steady production flow. Tesla smartly adjusts battery choices to suit local markets—favoring LFP in China for affordability, and NCA/NMCA in the U.S. and Europe for high performance. Other OEMs are catching up, adopting similar strategies to stay competitive. Diversification isn’t just smart—it’s essential in today’s market. -- Follow me for more posts about the battery industry. To not miss my next posts, don't forget to click on the bell 🔔 on the top right of my profile. #batteries #electricvehicles #ev

🔋♻️Battery Electric Vehicle Sustainability Through Strategic Battery Sourcing The transition from ICE to EVs is essential for reducing emissions, but EV battery production remains a significant source of CO₂ emissions. Traction batteries, which power EVs, contribute heavily to #emissions, particularly due to #rawmaterial extraction and #processing. Understanding & reducing emissions through #strategicsourcing & #recycling is crucial for improving EV #sustainability. ⚡#Batterytypes: LFP vs NMC811 ● NMC811 batteries offer high energy density and faster charging but are costlier and have higher emissions, while LFP batteries are cheaper, safer, and more environmentally friendly but have lower energy density. ● NMC811 is ideal for high-performance EVs, whereas LFP is better for cost-sensitive and environmentally conscious applications. The choice between these batteries depends on balancing performance, cost, and environmental impact. ⚡Emissions Drivers: Battery Active Material, major Contributor to Emissions ● BAM like lithium, nickel, cobalt, and graphite are primary contributors to emissions in battery production, esp. in NMC811 batteries. ● #decarbonizing these materials is essential for reducing emissions w/o compromising battery performance. ● LFP batteries have a lower #carbonfootprint due to their use of less emission-intensive materials like iron phosphate. ⚡Decarbonization Levers: 2 Key Levers to Physically Decarbonize Active Materials ● 2 main strategies for reducing emissions: Green primary sourcing & Recycling. ● #greensourcing can significantly cut emissions, but supply is limited, while recycling offers a sustainable alternative, though it contributes smaller portion of materials. ⚡Measuring Impact: CO₂ Emissions in Primary Sourcing & Recycling ● Green primary sourcing can reduce emissions by ~70% for materials (lithium hydroxide), while recycling can cut emissions by ~50% for NMC811 and 25% for LFP. ● The availability of #greenmaterials is limited & recycling tech. are still evolving, highlighting the need for a combined approach. ⚡Bringing It Together: #emissions Reduction depends on #sourcing & Battery Type: ● #carbonfootprint of #batteries varies based on sourcing methods & battery type w/ NMC811 offering higher emission reduction potential than LFP. Green primary sourcing can achieve ~62% emission reduction for NMC811, while recycling can achieve ~48%. ● For LFP, reduction potential is lower w/ green sourcing & recycling offering ~31% & 26% reductions, respectively. ⚡Implications for Decision-Makers ● Companies must strategically balance green primary sourcing & recycling to meet emissions #reduction goals. ● OEMs, battery OEMs & #policymakers need to #collaborate to optimize sourcing, advance recycling tech. & promote #transparency in #emissionsreporting. ● Building sourcing capacity in low-emission regions & expanding recycling infrastructure are #critical for long-term #sustainability. Source: BCG

The best and fastest way an automotive OEM can slash the price of producing EVs while hedging against supply chain snags, is to produce its own battery packs. As BYD - which started life as a battery maker in the 1990s, makes its own LFP packs, and sells them to brands like Kia and Toyota - shows, vertical integration is the name of the game. Hyundai Motor, which is arguably the best-positioned of all ‘legacy’ brands when it comes to EV rollout across its Hyundai and Kia brands, has seen the light here. Reported in Chosun Daily, the automotive giant has launched a dedicated unit to develop its own EV batteries “amid growing concerns it could fall behind after BYD unveiled a breakthrough [megawatt] battery capable of delivering over 400 kilometers of range with just a five-minute charge”. China dominates the EV battery supply chain, with CATL and BYD combined owning around 55% of the global market. Korea’s LG, SK On, and Samsung SDI combined own around 18.5%, according the CnEVPost. Sources say the team’s main role is to lead in-house battery development rather than the current arrangement where it works with suppliers to adapt external products for use in vehicles. Hyundai currently sources batteries from LG Energy Solution and SK On. “If you rely on outside suppliers, there’s a limit to how much you can bring prices down,” said an industry insider. “That’s why companies like Mercedes-Benz and Hyundai are now betting big on internalising battery technology.” As InsideEVs reports, in-house battery development has “myriad advantages”. It allows automakers to make batteries optimised for the car’s software and architecture and, after scaling up, cost advantages can be significant. But the upfront capital spend needed is yuuuge. Hyundai’s is already very vertically integrated. Hyundai MOBIS is a top level tier one supplier, and the company even makes its own steel and its own ships. If it can overcome the hurdles and make its own batteries too? Game changer. Hyundai Motor Group Hyundai Motor Company Australia #EV 애틀랜타 조선일보 (Atlanta Chosun Daily News) #EV #Batteries #BYD #CATL

𝐕𝐞𝐫𝐭𝐢𝐜𝐚𝐥 𝐢𝐧𝐭𝐞𝐠𝐫𝐚𝐭𝐢𝐨𝐧 𝐢𝐬 𝐞𝐱𝐩𝐞𝐧𝐬𝐢𝐯𝐞 𝐛𝐮𝐭 𝐢𝐭 𝐬𝐞𝐞𝐦𝐬 𝐭𝐨 𝐰𝐨𝐫𝐤 𝐟𝐨𝐫 𝐁𝐘𝐃, 𝐓𝐞𝐱𝐥𝐚 𝐚𝐧𝐝 (𝐢𝐧 𝐭𝐡𝐞 𝐟𝐮𝐭𝐮𝐫𝐞) 𝐟𝐨𝐫 𝐗𝐢𝐚𝐨𝐦𝐢 There are a lot of factors that have made Tesla and BYD so successful in the #BEV sector. One of the key strategies for both of them has been Vertical Integration. It's an expensive yet effective strategy to lower the variable cost of vehicles. So it's no surprise that other OEMs with deep pockets are moving in this direction: 🔹Xiaomi Technology has created a new subsidiary, Beijing Xiaomi Jingxu Technology, to produce its own #EV components such as #Batteries and electric motors. 🔹The initiative's objective is to reduce #Dependence on external suppliers, especially in a competitive market with supply‑chain tensions and volatile prices. 🔹Xiaomi seeks to cut #Costs and accelerate #Innovation cycles, following the same strategy it used in smartphones and in‑house chip development. 🔹Xiaomi is also considering building a 15 GWh battery factory, with a potential SOP in 2026, just to keep up with current demand. 🔹The #SU7 accumulated >80K orders in 48 days, far exceeding Xiaomi’s current production capacity and forcing rapid scaling efforts. 🔹Xiaomi targets delivering ~550K EVs in 2026, a 34% increase YoY, requiring expanded production and secure component supply. I am not sure which other OEMs are exploring a #VerticalIntegration strategy. But if I was advising OEMs, I'd recommend investing upstream in their own battery, #Semiconductor, #SDVs and intelligent‑driving (SW and HW) capabilities. It's an expensive strategy, but it's probably the best way to reduce exposure to geopolitical friction.... at least for the next few years.