Supply Chain Management Intern
About the job
- Maintain a cumulative GPA of 3.0 or higher.
- Be a rising junior or above.
- Have experience using Microsoft products and the Microsoft suite.
- Apply creativity to problem solving and alternative solutions.
- Collaborate with others on projects and assignments to achieve results.
- Learn the SGT business and understand its value proposition.
- Present information in one-on-one and large-group settings.
- Meet deadlines and schedules.
- Be a United States citizen and able to obtain and maintain a U.S. Government security clearance.
- Work within the Supply Chain Management department to assist with supplier vetting, onboarding, reporting, industry research, and key performance indicator analysis.
- Support Subcontract Administrators with procurement file administration to learn regulatory compliance.
- Engage in vendor outreach activities and develop appropriate vendor profile information.
- Participate in developing and maturing departmental metrics in Power BI.
- Participate in departmental continuous improvement projects, including metrics and enhanced use of artificial intelligence.
- Support the Supply Chain team as required during peak business periods.
- Conduct compliance reviews of procurement folders.
- Gain direct exposure to Federal Acquisition Regulations, supplier evaluation, and required internal and external supplier documentation.
- Participate in team meetings and continuous improvement projects.
- Have artificial intelligence experience.
About the company
Siemens is a global engineering and technology company focused on automation, digitalization, smart infrastructure, and mobility. Its products and solutions span industrial automation systems, electrical equipment, energy management, and digital services that help industries run more efficiently. The company’s core technology comes from its history of electrical generation and distribution, including the dynamo-electric principle, and it now sells hardware, software, and services that connect factories, buildings, grids, and transportation networks. Siemens differentiates itself through scale, a broad portfolio across the value chain, and a long track record of large-scale, multi-country projects in infrastructure and industry. Its goal is to enable smarter, more sustainable industrial processes and urban systems by integrating hardware, software, and digital services to improve productivity, energy efficiency, and mobility.
Company Size
10,001+
Company Stage
IPO
Headquarters
Munich, Germany
Founded
1847
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Simplify's Take
What believers are saying
- Q3 FY2026 orders reached €27.9 billion and revenue rose 7% on August 6.
- Siemens raised fiscal 2026 EPS guidance to €11.20-€11.50 after strong cash generation.
- October 2026 partnerships with Voltus, Abu Dhabi DMT, and OMV broaden software sales.
What critics are saying
- January 2026 São Paulo sued Siemens over alleged CPTM train bid collusion.
- Healthineers spin-off depends on tax rulings and execution, despite August 2026 clearance.
- If BMW and AstraZeneca withhold data, Siemens' billion-euro industrial AI bet stalls.
What makes Siemens unique
- Siemens' 177-year installed base feeds its 2026 industrial AI and digital-twin products.
- Siemens Mobility delivered Amtrak Airo on September 30, 2026, proving U.S. rail execution.
- Siemens and NVIDIA expanded on January 6, 2026, building an industrial AI operating system.
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Benefits
- Flexible Work Hours
- Remote Work Options
- Professional Development Budget
- Company Equity
- Mental Health Support
- Wellness Program
- Paid Vacation
- Paid Sick Leave
- Paid Holidays
- Parental Leave
- Employee Referral Bonus
- Employee Discounts
Growth & Insights and Company News
6 month growth
5%1 year growth
5%2 year growth
5%Modular data acquisition for multi-physics validation: Siemens Simcenter SCADAS ES! October 16, 2026. A new era in engineering: digital twin validation with Simcenter SCADAS ES. The engineering world faces pressure to accelerate validation processes while meeting complex multi-physics requirements in acoustics, structural mechanics, and thermal analysis. Traditional testing often relies on isolated, single-purpose measurement hardware, creating workflow bottlenecks, complicating multi-channel calibration, and limiting collaboration among distributed engineering teams. Siemens introduces the Simcenter SCADAS ES hardware to overcome these physical validation hurdles. This new system is designed to streamline digital twin validation and eliminate physical testing bottlenecks. Modular architecture: flexibility from lab to field. Simcenter SCADAS ES expands Siemens' test portfolio alongside the robust field platform, Simcenter SCADAS RS. Built on shared modular technology, this hardware adapts to various operational configurations, including test labs, test benches, and mobile testing environments. * Scalability: Its modular architecture allows engineering teams to incrementally increase channel capacity without changing core hardware. * Integrated Design: Signal conditioning, power distribution, and communication routing are integrated into interchangeable modules. * Remote Access: Multi-user operating software hosted on the hardware runs without external client licenses, offering remote monitoring and validation via web-based interfaces. Synchronized data and open ecosystem integration. Measurement integrity demands continuous data synchronization across multi-physics sensor packages and full audit traceability. Simcenter SCADAS ES provides synchronized, annotated data packets for rapid integration into AI models, digital twin correlations, and finite element simulation routines. * Test Connect: An open hardware-software data exchange interface shared by SCADAS ES and SCADAS RS platforms. This enables engineering teams to develop custom applications that communicate directly with acquisition nodes. * Advanced Analysis: For Noise, Vibration, and Harshness (NVH) or structural durability analysis, the hardware integrates with Simcenter Testlab software within the Siemens Xcelerator portfolio. According to Bruno Massa, VP of Simcenter Test Solutions at Siemens Digital Industries Software, this platform helps engineering organizations transition from isolated test workflows to a connected, scalable approach that delivers validated, AI-ready data for product validation, digital twin validation, and engineering automation. Technical details and comparisons. Systems in the Simcenter SCADAS family utilize 24-bit delta-sigma conversion architectures, offering a dynamic range of up to 150 dB and sampling frequencies up to 204.8 kHz per channel. To maintain phase synchronization between physically separated acquisition frames, precise time-stamping protocols like IRIG-B and IEEE 1588 Precision Time Protocol are used. Simcenter SCADAS ES is comparable to modular instrumentation platforms such as HBK QuantumX and LAN-XI systems, Dewesoft SIRIUS modular instrumentation, and National Instruments PXI Express data acquisition chassis. Providing an open Application Programming Interface (API) via Test Connect creates a vendor-agnostic workflow that addresses traditional interoperability limitations.
IBM and Siemens partner on joint research to advance NanoStack chip architecture. October 15, 2026 October 14, 2026 A physical limit to the semiconductors and electronics industry exists as the sub-1-nanometer scaling limit of classical planar and FinFET transistors. With the need for exponential growth in computing power density in artificial intelligence data centers, sovereign AI supercomputers, autonomous cars, and portable electronics, the existing limitations of semiconductor manufacturing physics have reached atomic levels. For many years, Moore's Law increased the computing power through decreasing physical lengths of transistor gates in two-dimensional silicon wafer. At the sub-2-nanometer range of scaling, there is an issue with quantum tunneling leakage, heat dissipation problems, and parasitic interconnect resistances that traditional transistor designs face. In order to be able to scale computing power while maintaining the power budgets of chips, the world's semiconductor foundries are switching from two-dimensional horizontal GAA nanosheets to three-dimensional vertical stacking and NanoStack architecture. Three-dimensional semiconductor design brings with itself extreme engineering challenges such as thermal hotspots, mechanical stresses, multi-die interconnect issues, and extreme Electronic Design Automation (EDA) simulation problems. For the creation of commercially viable sub-1nm 3D semiconductor chips, there should be convergence of silicon-based research, semiconductor packaging technology, and EDA simulation technology. Addressing this semiconductor scaling challenge, computing pioneer IBM and industrial software titan Siemens AG announced a joint research collaboration to advance NanoStack architecture. By pairing IBM's semiconductor R&D leadership at the Albany NanoTech Complex with Siemens' EDA software, digital twin simulation, and multiphysics modeling engines, the alliance establishes a technological foundation designed to accelerate the design, testing, and volume manufacturing of 3D NanoStack semiconductors globally. Co-Optimizing 3D Silicon physics with advanced EDA digital twins. The research alliance between IBM and Siemens bridges the gap between atomic-level silicon engineering and commercial software design tools. By embedding Siemens' EDA thermal, mechanical, and parasitic extraction software directly into IBM's NanoStack development pipeline, the collaboration enables semiconductor designers to simulate and optimize multi-die 3D chips virtually before committing to expensive physical tape-outs. Key technical and research pillars of the announcement include: Multiphysics Digital Twin Co-Optimization: Integrates Siemens' Calibre and Solido EDA suites natively into IBM's 3D NanoStack process, allowing engineers to predict thermal dissipation across stacked dies. Vertical 3D NanoStack Interconnect Precision: Develops parasitic extraction models to optimize ultra-dense vertical interconnects, reducing signal latency between stacked compute layers. Accelerated Albany NanoTech Prototyping: Validates Siemens EDA models against physical silicon wafers manufactured at the Albany NanoTech Complex, establishing ground-truth accuracy for commercial chip design. Open EDA Standard Alignment: Provides fabless semiconductor companies, foundry partners, and cloud hyperscalers with pre-validated 3D design kits to accelerate custom AI accelerator tape-outs. "Scaling semiconductors beyond sub-1-nanometer nodes requires fundamental breakthroughs in both physical materials and digital design software," stated executive leadership at IBM and Siemens. Impact on the Semiconductors & Electronics industry. The strategic research alliance between IBM and Siemens highlights major developments across the broader Semiconductors & Electronics landscape: 1. Shifting to Monolithic 3D NanoStack Architecture For over half a century, semiconductor scaling meant shrinking horizontal transistor features on a single flat plane. IBM and Siemens' joint research formalizes the transition toward True Monolithic 3D Silicon Architectures. Monolithic NanoStack design stacks memory, logic, and power management units vertically in a single integrated structure, slashing latency and physical footprint. 2. Establishing Hardware-Software Co-Design as a Requirement In classical chip design, hardware engineers fabricated physical silicon first and left software EDA tools to adapt later. Co-engineering NanoStack architectures with Siemens' digital twin platforms proves that Hardware-Software Co-Design is Essential for Sub-1nm Yields. Simulating thermal and electromagnetic behavior alongside chip layouts prevents multi-million-dollar tape-out failures. Overall effects on businesses operating in the sector. The IBM-Siemens alliance provides definite benefits for fabless chip vendors, semiconductor foundries, cloud hyperscalers, and electronic hardware producers as follows: Reduced Cost to Design Unique AI Chips: Ready-to-use 3D design kits help unique AI accelerators be designed by chip startups and cloud vendors without building their own manufacturing testbeds. Increased Compute Density per Watt: Vertical NanoStack technology enables server CPUs to achieve increased compute density per watt to reduce costs associated with AI data centers. Reduction of Risk for Supply Chain Investment: The defined route to sub-1nm chip manufacturing provides semiconductor foundries with an opportunity to invest capital in the construction of expensive 3D manufacturing facilities. Conclusion. IBM and Siemens' joint research collaboration to advance NanoStack architecture marks an important milestone in the evolution of semiconductor physics, microelectronics, and EDA software. By pairing IBM's silicon fabrication research with Siemens' advanced multiphysics digital twin platforms, these two industrial pioneers are building the digital and physical foundation for post-finfet computing. For the global semiconductors and electronics industry, this news confirms that sustaining Moore's Law into the 3D era requires unifying physical materials science directly with intelligent design software.
Siemens and Oman's Ministry of Energy and Minerals prepare engineers to plan the Sultanate's power network. Posted on October 15, 2026 Universities selected by the Ministry of Energy and Minerals as Oman prepares its grid for a growing share of renewable energy As Oman expands its renewable energy capacity and invests in a unified national grid, Siemens and the Omani Ministry of Energy and Minerals are collaborating to prepare engineers for the grid's upcoming phase. At the IEEE PowerTalks 2026 in Muscat, Siemens, in the presence of representatives from the Ministry of Energy and Minerals, granted licenses to four Omani universities: Sultan Qaboos University, the University of Nizwa, University of Technology and Applied Sciences, and Sohar University. These licenses allow the universities to use industry-standard software for planning, simulating, and protecting power networks. The software includes Gridscale X PSS E, PSS SINCAL, and Gridscale X Advanced Protection Assessment, which are used by 500 students per semester across the 2026-27 and 2027-28 academic years. Students in BSc, MSc, and PhD programs at all four universities will utilise the software licenses to learn how to design grids that can effectively respond to faults. The Ministry of Energy and Minerals selected the four universities as part of its broader national energy transition strategy, aims to support grid modernisation by training the next generation of engineers in grid planning and operations. Each semester, Siemens' software licenses will provide practical training on grid-planning tools for 500 students across the participating universities. This grid planning software license grant is a continuation of Siemens' multi-year collaboration with the Ministry of Energy and Minerals. This collaboration includes support for Oman's national energy model and Energy Transition Strategy, as well as training for government specialists in energy system modeling and planning. In Siemens' 2026 Middle East Infrastructure Transition Monitor (ITM), a survey of 400 senior executives across the UAE, Saudi Arabia, Egypt, Qatar, and Oman revealed that grid limitations are the primary factor hindering their industry's transition to clean energy. Notably, 62% of respondents emphasised the critical role of inadequate grid infrastructure in hindering the process of electrification. Conversely, ITM respondents identified digitalisation as the most promising factor that could accelerate the clean energy shift. Specifically, 64% of respondents recognised the significance of smart grids and grid software as essential enablers of this transition. Furthermore, the report underscores the grid's pivotal role as a cornerstone platform for industrial growth, energy security, and decarbonisation within the region. Jamie Hoyzer, Managing Director, Siemens, Oman, said, "Across the Middle East, the grid is where energy ambitions are either enabled or delayed. It is one of the biggest opportunities for countries that plan ahead, such as Oman." "Planning a grid for a high share of renewables requires the right tools and the people who know how to use them. We are proud to partner with the Ministry of Energy and Minerals and the universities to prepare the next generation of engineers who will shape Oman's grid from on the same software used to plan and protect real networks." Eng. Maryam Al Hashmi, Director, Electricity and Energy Efficiency policies and Strategies, Ministry of Energy and Minerals said, "The national grid is where Oman's renewable energy ambitions become reality. As we connect more solar and wind and extend the grid across the Sultanate, we need Omani engineers who can plan and operate it with confidence. Bringing advanced grid-planning tools into our universities is an investment in that national capability, in line with Oman Vision 2040." Dr. Hamdan bin Sulaiman Al Fazari, Vice Chancellor, Sohar University, said, "Our students learn best when they work on the same challenges, and with the same tools, as the industry they will join. Access to Siemens grid-planning and protection software allows us to integrate theoretical and practical learning about power network management into our teaching and research. Thereby enabling our graduates to be ready to contribute to Oman's energy transition from day one." The share of renewable energy connected to Oman's national grid increased from 4.26% in 2024 to 9.46% in 2025. The Sultanate's goal is to achieve 30-40% renewable energy integration by 2030, 60-70% by 2040, and 90-100% by 2050. To accommodate this scale of renewables, new planning and protection strategies are required, necessitating the training of engineers in these areas. PSS E is employed for transmission planning and analysis. PSS SINCAL empowers grid planners to navigate grid complexity through reliable, engineering-grade simulation and analysis software. Gridscale X Advanced Protection Assessment provides detailed protection simulation, enabling engineers to design grid responses to faults.
Siemens partners with Galp to digitize major renewable hydrogen plant in Portugal. Key points. * Siemens collaborates with Galp Energia to enhance the GalpH2Park hydrogen facility. * The plant aims to produce 15,000 tons of renewable hydrogen annually. * Siemens' digital solutions can optimize operations, offering potential energy savings of 15%. * The project supports Europe's goals to reduce greenhouse gas emissions significantly. Siemens has announced a major collaboration with Galp Energia to digitalize the GalpH2Park, a renewable hydrogen production facility located in Sines, Portugal. This facility is set to be one of the largest in Europe, with operations expected to commence by the end of 2026. The partnership focuses on deploying Siemens' hydrogen software portfolio across the facility, which boasts a significant capacity of 100 megawatts. The first phase of the project will utilize the Siemens Hydrogen Performance Suite, a comprehensive digital cockpit designed specifically for managing renewable hydrogen operations. This advanced platform incorporates a predictive digital process twin that leverages real-time data analysis to optimize plant performance. By integrating operational data with energy market inputs, the technology will aid in planning production schedules and managing energy procurement strategies effectively. Siemens anticipates that the implementation of this digital suite could yield energy savings of up to 15%. Additionally, the GalpH2Park facility will be powered by renewable electricity sourced through long-term agreements as well as Galp's own generation assets. The project is expected to produce as much as 15,000 tons of renewable hydrogen each year, significantly contributing to reducing direct Scope 1 greenhouse gas emissions. It is estimated that this production will mitigate approximately 110,000 tons of carbon dioxide equivalent emissions annually, aligning with the broader European decarbonization goals. Axel Lorenz, Executive Vice President of Automation Process Industries at Siemens, emphasized the strategic importance of the GalpH2Park project in the context of Europe's energy transition. He stated, "GalpH2Park is a lighthouse for Europe's energy transition. We are convinced that digital innovation is the key to making renewable hydrogen economically viable and accelerating the decarbonization of industry. Siemens is turning this ambition into industrial reality - at scale." This project underscores the increasing role of digital technologies in transforming the renewable energy landscape, particularly in hydrogen production, and showcases how strategic partnerships can drive the transition towards sustainable energy solutions. Overall, the initiative is not only a step forward for Siemens and Galp but also represents a significant contribution to global efforts aimed at achieving a cleaner and more sustainable energy future. October 15, 2026 at 01:10 AM Sines, Portugal
Siemens joins Robots for America to boost robotics growth and policy. October 15, 2026. Siemens partners with Robots for America to transform US manufacturing. Robots for America, a national coalition dedicated to helping US manufacturers adopt robotics and automation, has announced Siemens as a founding member. This collaboration aims to advance workforce skills, factory technologies, and policy development. Siemens' mission: efficiency and workforce development in manufacturing. Chris Stevens, Head of Siemens US Automation, emphasized the urgency in modernizing US manufacturing. He highlighted the critical role of technologies like robotics, automation, and physical AI in achieving scalable efficiency. Stevens stressed the importance of equipping the workforce with the necessary skills and tools. He expressed Siemens' pride in joining Robots for America to unite the industry around this mission. Siemens' contributions to the coalition: * | Workforce Skill Development: Siemens will leverage its expertise in the US robotics market to support equipment manufacturers and the broader industrial ecosystem. The company has pledged to train 200,000 electricians and manufacturing professionals in the US by 2030. * | Factory Technology Advancement: Siemens' industrial automation environment seeks to provide a standardized foundation connecting robots, machine tools, and production systems. This will enable factory-wide operation and optimization. * | Public-Private Alignment: Siemens is also a key partner in significant public initiatives, including the Department of Energy's Genesis Mission and the Department of State's Foundry School initiative. Siemens' role in policy shaping. According to Robots for America, Siemens' involvement signals its entry into US robotics policy. Neysan Rassekh, Executive Director of RFA, noted that policymakers often question the impact of automation on workers. He stated that Siemens' commitment to training 200,000 workers to build and operate future factories directly addresses this concern. Rassekh underscored that automation and a skilled workforce grow together, benefiting communities and families as American manufacturers increase production.