Panels Abstracts

Monday, Sep 16, 2024 — Panels Abstracts


Date: Mon, Sep 16, 2024
Time: 10:00-11:30 Eastern Time (EDT) — UTC-4
Duration: 1.5 hours
Abstract: Full-stack quantum computer, scaling, qubit design quantum hardware-software compatibility, system optimization
Keywords: In recent years, there has been tremendous and ongoing interest in scaling quantum computers. Whether it’s developing new QPUs, control electronics, or software, researchers have made significant progress in scaling each layer of the quantum computing stack, often developed with a strong focus on that single layer. But only a unified system will be able to deliver on the promises of practical computation and simulation. QPUs need to be optimally designed to run cutting-edge algorithms and control systems need to leverage classical software to its full potential for automation and optimization. Ultimately, to achieve this ambition of a useful quantum computer, it is crucial to consider the entire system moving forward and take these interdependencies into account. To address the challenges of quantum scaling, our panel of experts will present all levels of the quantum stack, drawing on insights from leading research laboratories and established companies. By bringing together individuals from all levels, we aim to break down the requirements at every stage of this ambitious scaling endeavor. How do we practically get to fabricating QPUs with thousands of qubits? What level of automation and recalibration will be required to effectively run a large quantum computer? What infrastructure is required to house and control orders of magnitude larger quantum computers? These are just some of the questions we will discuss with the experts and the audience with the hope to underscore the importance of deep collaboration within the field.
Target Audience: We expect this panel to provide value for a wide range of audiences with deep knowledge of a specific topic or those more interested in the holistic view we will present. This will include experimental physicists, theoretical physicists, electrical engineers, and computing scientists. 

Date: Mon, Sep 16, 2024
Time: 13:00-14:30 Eastern Time (EDT) — UTC-4
Duration: 1.5 hours
Abstract: Quantum computing, quantum error correction, error suppression, fault-tolerant quantum computing
Keywords: Quantum computers are rapidly improving. Recent breakthroughs in Quantum Error Correction, error suppression, and quantum hardware have enabled quantum computers to enter a new era of useful computation. Quantum computers have now surpassed the boundaries of classical simulation and, in many cases, brute-force classical computation.
However, vast uncertainty regarding the usefulness of quantum computers before fault-tolerant quantum computing (FTQC) prevails. Most practical use cases remain out of reach, businesses are still hesitant to invest in dedicated quantum computing resources, and many quantum computing users still rely predominantly on simulators.
This panel brings together a diverse group of industry experts charting business applications in quantum today to discuss key questions surrounding useful quantum applications, adoption roadblocks, and tactical advice for businesses looking to leverage quantum computing.
What quantum applications will deliver business value in the near future? What are the roadblocks and hurdles to quantum adoption and implementation across the industry? Is there a utility to quantum hardware before FTQC? What can we learn today from quantum computing that wasn’t possible a year ago?
This panel will provide a range of perspectives on the utility of quantum computing and tangible industry impacts. 
Target Audience: The panel is expected to attract a wide range of participants from industry, government, and academia due to its broad appeal. The panel moderator will take care to maintain a high level of discussion, ensuring that both undergraduate and graduate attendees can comprehend the topics being covered. The focus on business value will be particularly appealing to potential end-users of quantum computers from industry and government sectors. Hearing insights from leading experts representing various industries and applications will provide valuable perspectives to both individuals working in the quantum industry and those who are interested in leveraging quantum. Additionally, the discussion of trends and insider knowledge shared by the panelists, who are experts in the quantum computing industry, will be of great interest to academics and individuals seeking to transition from academia to industry roles. 

Date: Mon, Sep 16, 2024
Time: 15:00-16:30 Eastern Time (EDT) — UTC-4
Duration: 1.5 hours
Keywords:  NISQ, fault tolerance, quantum inspired  
Abstract: Is the NISQ Era ending? And if the style and ambitions of what we call NISQ R&D are dying, should we save or revisit them?
A lively panel featuring a diversity of points of view, with a focus on scientific, engineering, and business aspects, will discuss the trough of disillusionment cooling down funding for NISQ R&D in view of expectations for early fault tolerance. 
Target Audience: Being this a hot topic, we expect the panel to be of interest to a very broad audience, including non-technical professionals.However, the moderator’s objective is to promote this panel to a technical audience and newcomers to the field (e.g., students).

Tuesday, Sep 17, 2024 — Panels Abstracts


Date: Tue, Sep 17, 2024
Time: 10:00-11:30 Eastern Time (EDT) — UTC-4
Duration: 1.5 hours
Abstract: Quantinuum and Microsoft worked together in early 2024 to investigate the potential of Quantinuum’s H2-1 device to demonstrate the creation of reliable logical qubits and meeting the criteria for Microsoft’s definition of the next era of quantum computing: Level 2 Resilience. In joint work demonstrating this achievement, the teams clearly showed error corrected logical circuit operations at better than breakeven, raising questions for the entire industry.

What work was done in hardware and software to achieve order-of-magnitude improvements between physical and logical circuit error rates? What new capabilities are conferred by achieving Level 2 – Resilience? What impact do this and other QEC results have on industry roadmaps? Where does error mitigation and error detection fit in? What are the fidelity and scale milestones on the path to Level 3 – Scalable quantum computing?

This panel brings perspectives from scientists and engineers that worked on Microsoft’s and Quantinuum’s breakthrough achievement of the most reliable logical qubits on record, and the development of Microsoft’s qubit-virtualization system with error diagnostics and correction. The panel will share insights gained through this collaboration and shed light on several of the subsequent problems the Quantinuum and Microsoft teams are tackling.  
Keywords: Logical qubits, error correction, scaling
Target Audience: We expect to engage the interest of a wide audience, including industry leaders, quantum computing users and academic researchers alike. We aim to have an accessible conversation, open to both experts and students. Our hope is that the audience will leave with a better understanding of Quantinuum and Microsoft’s position on what is needed for the next step toward large scale fault-tolerant quantum computing.

Date: Tue, Sep 17, 2024
Time: 13:00-14:30 Eastern Time (EDT) — UTC-4
Duration: 1.5 hours
Abstract: Canada is at a critical juncture in establishing its role as a global leader in quantum computing and engineering. This panel will delve into the strategic initiatives, collaborative opportunities, and technological advancements that can help to achieve these ambitions. Experts from academia, industry, and government will discuss the current landscape, challenges, and opportunities as the Canadian quantum ecosystem grows and develops. Participants will gain insights into Canada’s unique strengths, ongoing research and development, and policy frameworks driving quantum innovation. 
Keywords: Canada’s National Quantum Strategy, Quantum research in Canada, Quantum industry in Canada, Training and workforce development in Canada, Policy frameworks and strategies
Target Audience: The target audience includes professionals from industry, government agencies, research institutions, and academia involved or interested in quantum computing and engineering. The panel aims to attract a diverse mix of participants to facilitate comprehensive discussions and networking opportunities.

Date: Tue, Sep 17, 2024
Time: 15:00-16:30 Eastern Time (EDT) — UTC-4
Duration: 1.5 hours
Abstract: The million dollar question of the quantum industry is When will we start seeing real quantum algorithmic advantages? When should we expect to see quantum circuits of 100, 1,000, or even 10,000 logical qubits, running thousands or even millions of logical gates reliably and accurately on real noisy quantum devices? It is understood by all, that this “quantum advantage timeline” is critical; and that it will be determined first and foremost by the protocols used for handling errors and noise in the real quantum devices, and in particular, by how efficient and accurate those protocols are. Hardware companies and startups alike are currently using and further developing a variety of methods to handle errors, including error suppression, error mitigation, error correction, and combinations thereof.
This panel will discuss the different methods for reducing or eliminating the effect of errors from quantum algorithms, their overheads currently and in the future, and the implications to the quantum advantage timeline, namely, potential implications on various hardware in the coming years. 
Keywords: Quantum computing, quantum advantage, error correction, error mitigation, error suppression
Target Audience: The target audience is a mix of participation from industry, government and academia, Investors would be very interested to learn about the different perspective of experts about the possible time lines for quantum algorithmic applications; this has a tremendous effect of questions such as the growth of the market. They would also be very interested to hear about the different approaches for handling the main problem of quantum computers, namely noise, in the different hardware platforms and using the different software approaches (EC ES and EM). The answer determines which of these hardware and software is a better horse to gamble on. Government would be very interested in this panel since it will shed light on the possible time line for when the quantum industry will really start to grow; When it does, this could significantly affect the global technological industry and might have an important effect on where to invest government money and which programs need to be put more emphasis on. Industry – end users – would be very interested since they need to know which technologies they should use and what hardware. Finally, academia and researchers are clearly deeply interested in all the above mentioned questions, and would be keen to hear the open questions that exist in the area, and the debates and challenged that call for resolutions. Another type of questions which might be of great interest to researchers in the audience is that of which problems are of interest in which timescale; the clarification of the timeline of availability of different sizes of quantum circuits might further motivate researchers to explore applications for the appropriate sizes.

Wednesday, Sep 18, 2024 — Panels Abstracts


Date: Wed, Sep 18, 2024
Time: 10:00-11:30 Eastern Time (EDT) — UTC-4
Duration: 1.5 hours
Abstract: Power systems are undergoing a profound transformation, becoming increasingly more complex, dynamic, and uncertain due to the rising deployment of renewable energy resources, Distributed Energy Resources (DERs), the boom of electric vehicles, and more.
As the complexity of the modern grid continues to increase, classical technologies are starting to face significant limitations in solving key problems such as grid management, probabilistic risk assessments, and capacity expansion planning. This puts the energy industry in a difficult situation: either simplify the problem and implement a non-optimal solution or invest considerable resources in computation to achieve optimal solutions -but neither of these situations is ideal.
While classical methodologies struggle with modern challenges, quantum technologies emerge as a promising alternative to balance complexity and computational costs in a way that no other technology truly can. Quantum computing, for instance, unlocks new capabilities to optimize electric vehicle charging infrastructure or simulate the aging of energy production facilities. Quantum sensing also offers opportunities for improved monitoring and quantum networking for enhanced grid communication and reliability.
This panel will feature speakers from the US government, research, industry, and a quantum startup who have started working together to build ties between the energy and the quantum industries, and experiment on real-world applications.
Whether you’re looking to understand the concrete applications of quantum in energy, or seeking inspiration for innovative solutions, our panel offers a unique opportunity to engage with leading experts and shape the future of quantum for energy. 
Keywords: Quantum Computing, Quantum Sensing, Quantum Communication, Energy Industry, Use case Collaboration, Industry, Government
Target Audience: This panel welcomes engagement from a wide range of participants, including researchers, scientists, engineers, entrepreneurs, developers, students, practitioners, educators, programmers, and newcomers.

Date: Wed, Sep 18, 2024
Time: 13:00-14:30 Eastern Time (EDT) — UTC-4
Duration: 1.5 hours
Abstract: In recent years we have seen increased adoption of remote-access quantum computers. At the same time, the few on premises devices used to explore practical applications are used as black boxes. This is a reasonable outcome, as with growing levels of abstraction, the users running applications are seldom the ones operating the machines.
However, quantum computing could heavily benefit from an open stack solution, where users have full access to the inner workings and components of the machine, to test and develop alternative solutions, or optimize each layer individually. Firstly, quantum computing is not a fully mature technology, and experts and scientists can use the flexibility of an open stack solution to develop further, in terms of different qubit modalities and performance of components and technologies. Secondly, higher level users are also becoming more acquainted with the technology and can positively affect its development, if they have access to a transparent system. Lastly, developers around the world can start working on optimizing components for specific tasks, building more tools and even creating an element of standardization that will benefit the entire community. This tension between specialization and standardization is in part the element that would make flexible and transparent designs beneficial.
In this panel we will host a discussion between leading innovators with an aim to help the audience grasp the importance of Open Stack Quantum Computing. We will see how providers of quantum processing units, cryogenic systems, control equipment and software can work together with full transparency, to push for faster development. We will get acquainted with the challenges that open stack brings in larger projects such as a national computing center, and what it means to calibrate a transparent and dynamic system. Finally, we will get a feel of what kind of ecosystem the open stack is bringing to life and how it will impact quantum computing.
Keywords: Open stack, quantum computing, quantum stack 
Target Audience: The nature of this panel ensures that anyone with an interest in quantum technologies can benefit from the discussion. Both experienced quantum enthusiasts and those new to the field will find value in the shared visions of our panelists pushing towards open stack quantum computers. Moreover, the variety of perspectives offered by this panel, reflecting a wide range of skill sets, will attract a diverse audience, offering new viewpoints and stimulating fresh ideas in many domains.

Date: Wed, Sep 18, 2024
Time: 15:00-16:30 Eastern Time (EDT) — UTC-4
Duration: 1.5 hours
Abstract: The ultimate goal in quantum computing is building a fault-tolerant device capable of running useful, large-scale quantum algorithms with minimal error rates. Some key challenges in achieving fault tolerance include building processors that can support potentially millions of controllable physical qubits, correcting quantum errors through active quantum error correction (QEC) techniques and developing novel algorithms that offer provable speedups. Building software that would allow users to tap into the potential of a fault-tolerant quantum computer more easily is equally challenging. This panel session aims to gather industry representatives, researchers in error correction and hardware architectures, enthusiasts and students to discuss and explore the latest advancements in fault-tolerant quantum computing (FTQC). We aim to discuss four major themes in the quest towards FTQC:
1. Overall progress towards FTQC: Discuss the multiple hardware architectures and approaches, highlighting the key capabilities (and outstanding challenges) that support (impede) FTQC.
2. How QEC fits within the FTQC stack: How will a developer work with QEC? How can we integrate syndrome decoding within the FTQC stack? How will high-level quantum programming languages affect the development of the FTQEC layer of the stack, and how can we meet these requirements?
3. The vertical integration of the software stack for FTQC: A discussion on software standards for the FTQC era. How will a software stack integrate with multiple hardware platforms? Should software development proceed separately from the hardware, or should we seek an integrated approach from the onset?
4. The role of software in developing new schemes and techniques: What role can software tools play in accelerating the arrival of FTQC?
Keywords: Fault tolerance, quantum error correction, software development, hardware development 
Target Audience: he target audience for this session includes individuals with diverse backgrounds. We expect, and welcome participation from industry and academia, including researchers engaged in hardware development, quantum error correction, fault tolerance research and software developers actively involved in creating tools based on these research advancements. In addition to professionals, we encourage students with a keen interest in the topic to join us, as their valuable insights and contributions can greatly support the ongoing efforts in this field. 

Thursday, Sep 19, 2024 — Panels Abstracts


Date: Thu, Sep 19, 2024
Time: 10:00-11:30 Eastern Time (EDT) — UTC-4
Duration: 1.5 hours
Abstract: Diversity, Equity, Inclusion, and Accessibility (DEIA) initiatives are necessary for fostering thriving societies and institutions. These efforts acknowledge the inherent value of diversity and seek to dismantle systemic barriers that hinder equitable participation and representation. This panel is the third annual joint authored IBM Quantum and Quantinuum DEIA panel. This year we are excited to welcome in the partnership of the Unitary Fund 501c (3) nonprofit with a representing author. In the past the panel has prioritized the voices of marginalized groups and tapped c-suite and leadership within the Quantum Industry for their take on fostering diversity, equity and accessibility at their respective companies.
The goal of this year’s panel is to discuss how to leverage accountability for DEIA success. Accountability is a pivotal component in driving meaningful progress as it ensures that organizations and individuals are held accountable for their commitments and actions. Accountability mechanisms, such as transparent reporting, monitoring, and evaluation processes, are critical in holding individuals and institutions responsible for advancing DEIA goals. Without accountability, DEIA efforts risk becoming superficial, lacking the substantive changes needed to create lasting impact.
We aim to provide attendees with concrete ideas and tools to implement accountability and diversity advocacy in their organizations and their broader, personal engagements.
Keywords: Diversity, Equity, Inclusion, Accountability, Representation, Accessibility, Transparency, Advocacy 
Target Audience: This panel is intended for all attendees of the conference. DEIA within the quantum industry is up to each and every one of us who work in the field, and this panel discussion asks the audience to reflect upon the DEIA efforts of their organizations, and how they and their peers sustain those efforts by keeping the organization, and each other, accountable. Our goal is to have the audience walk away from this discussion with a better understanding of what effective DEIA accountability entails, why it’s important, and how they can do their part to activate change.

Date: Thu, Sep 19, 2024
Time: 13:00-14:30 Eastern Time (EDT) — UTC-4
Duration: 1.5 hours
Abstract: The design and implementation of a quantum workforce plan remains a key bottleneck to the fast-growing field of quantum computing and engineering. Despite the sustained excitement and investments in quantum technology and its applications, the deployment is challenging because of the stringent technical requirements and state-of-the-art knowledge of hardware and software products. How is it possible to de-risk investor and public stakeholder investments that drive the field while ensuring product developers have the needed resources to thrive?
The authors posit that entrepreneurship and intrapreneurship frameworks will play a vital role in developing the workforce that can enable the adoption of quantum computing and associated technology. A multidisciplinary and cross-functional approach is required for researchers, industry practitioners, and educators to understand the market needs and streamline product development.
The panel will bring together actors from innovation support organizations and the private sector, including incubators, accelerators, start-ups, and large corporations. The discussion will offer space to reflect on the lessons learned on their journey to establishing human and organizational development solutions; the panellists’ interventions will illustrate how entrepreneurship and intrapreneurship skills combined with technical foundations have ultimately led to new product lines, business models, and the buy-in of multiple stakeholders.
Keywords: Workforce training, entrepreneurship, intrapreneurship, education supply chain 
Target Audience: The panel is expected to be of interest to (1) Early career researchers and students with interests in entrepreneurship, (2) companies looking for perspectives and reasons to engage with ecosystems, and (3) government funding bodies to learn best practices and needs.

Date: Thu, Sep 19, 2024
Time: 13:00-14:30 Eastern Time (EDT) — UTC-4
Duration: 1.5 hours
Abstract: Quantum computing represents the cutting-edge frontier of computational science, promising exponential speedups for specific classes of problems. Understanding its software stack is crucial for harnessing its potential. This is especially important when considering that quantum computers would almost always coexist with classical resources, making interoperability and carefully planned workflows a pre-requisite. In this panel, we’ll explore the quantum computing software stack with industry experts, covering everything from pulse-level qubit manipulation to gate-level operations, including both physical and logical gates, compilation, and quantum error suppression, mitigation and correction. We’ll also discuss integration with classical workflows at the application layer, examining roles, state-of-the-art technologies, and prospects. This comprehensive discussion aims to illuminate the complexities and integration of quantum and classical systems within a unified stack. The panel will include experts from leading labs, research centers and commercial companies who design and utilize various layers of the software stack. This discussion will help the audience to get a better understanding of what challenges they face in terms of technology, integration and know-how. With this discussion, we will attempt to achieve two critical goals: one, clarify what software steps are involved when running an application on a hybrid quantum-classical system such as the ones in the works in many HPC centers; and two, understand where the integration between quantum and classical processes and protocols really happen.
Keywords: Quantum software, quantum computing stack, hybrid quantum classical 
Target Audience: Although mostly focused on software, we expect this discussion to be useful to a wide audience, from students to field experts, and across different disciplines related or within quantum computing, software and hardware.

Date: Thu, Sep 19, 2024
Time: 10:00-11:30 Eastern Time (EDT) — UTC-4
Duration: 1.5 hours
Abstract: Today, quantum networks are in their infancy. Like the Internet, quantum networks are expected to undergo different stages of research and development until they reach the level of practical use. A best practice in network research and development is to create testbeds to enable rapid prototyping, experimentation, assessment and improvement of technologies and tools before transitioning them into field deployment. To date, a few quantum network testbeds have been, or are being built around the world to demonstrate the building blocks of quantum networks. Each testbed has its unique design, architecture, and underlying quantum technologies. Although significant progress has been made, existing quantum network testbeds are typically implemented as large laboratory experiments with limited functionality. To move these testbeds from laboratory experiments to practical deployment of quantum networks, several technical challenges for quantum networks need to be addressed. This panel consists of several quantum networking experts with experience building testbeds, who will identify major challenges for practical deployment of quantum networks and future directions for research and development in order to meet these challenges. At the beginning of the panel session, each of the panelists will present their testbed and his/her position statement covering certain important aspects of this subject. Then, the panelists and the audience will discuss the presented statements, past experiences, and new ideas in the subject area. This panel provides a platform to exchange ideas and share problem-solving skills in building quantum network testbeds and their control software stacks.
Keywords: Quantum networking, quantum network testbed, quantum network architecture and protocol stack quantum devices, quantum network control 
Target Audience: The main audience will be researchers from academic institutions and research labs, which will be brought together to facilitate collaboration and knowledge sharing in the future. Industrial participation from the audience can also be expected as there might be interest in long-term research projects that cannot feasibly be undertaken under commercial environments. 

Friday, Sep 20, 2024 — Panels Abstracts


Date: Thu/Fri, Sep 19/20, 2024
Time: This panel has been distributed over and integrated into four Photonics Paper Sessions as follows:
  • Thu 15:00-16:30 — PHO-IOPT: Integrated Quantum Optics
  • Fri 10:00-11:30 — PHO-QSAS: Photonic Quantum Sources and Sensing
  • Fri 13:00-14:30 — PHO-PCOM: Photonic Quantum Processing and Communication
  • Fri 15:00-16:30 — PHO-APPS: Quantum Photonics and Applications
Abstract: This panel will feature distinguished speakers who are at the forefront of research and innovation in quantum photonics. This panel aims to provide a comprehensive overview of the latest breakthroughs and emerging trends in the field, including developments in quantum communication, quantum computing, and quantum sensing. The speakers will present cutting-edge research, discuss the practical applications of quantum photonics technologies, and explore the challenges and opportunities facing this rapidly evolving domain. By bringing together leading experts, the panel will foster insightful discussions and collaborations, driving forward the future of quantum photonics.
Keywords: Quantum photonics, Entanglement, single photons, quantum optics 
Target Audience: With speakers from both academia and industry, the panel aims to engage a diverse audience, including industry professionals and government agencies, in addition to academic researchers. 

Date: Fri, Sep 20, 2024
Time: 10:00-11:30 Eastern Time (EDT) — UTC-4
Duration: 1.5 hours
Abstract: Most large-scale quantum algorithms will require quantum error correction (QEC). It is unrealistic to assume that full fault-tolerant QEC will replace physical level algorithms all at once. Instead, QEC is slowly replacing certain subroutines in physical layer calculations. At present, many experimental demonstrations focus on narrow aspects of QEC only applicable to single algorithms on specific hardware. There is a pervasive tendency for these results to be touted as “the next definitive QEC breakthrough” with little explanation of their general usefulness. This tendency makes a productive discussion of progress in the field unnecessarily difficult. As such, a comprehensive and widely agreed-upon set of break-even milestones is needed. The form of these milestones merits significant collaborative discussion. Which computational primitives should be included and how should their importance be weighted? How should primitives be combined into more comprehensive metrics? How should these milestones be compared across different architectures? To what extent should fault-tolerance be a requirement? How should other error suppression strategies such as QED codes and error-mitigation protocols be included? As the number of logical qubits scales, what logical benchmarks should be used?
This panel brings together experts in QEC with diverse technical backgrounds and experience with different computing platforms to move towards an industry-wide consensus of what is needed to go “beyond break-even” in quantum computing.
Keywords: Quantum Error Correction, Break-Even, Fault-Tolerance 
Target Audience: The target audience is anyone interested in developing or assessing the progress in quantum error correction. The audience will be given tools to understand the relative importance of past and future quantum error correction demonstrations and will leave with a detailed roadmap outlining the various milestones to be met on the path to full fault-tolerant quantum computing.

Date: Fri, Sep 20, 2024
Time: 10:00-11:30 Eastern Time (EDT) — UTC-4
Duration: 1.5 hours
Abstract: Quantum innovation in computing, communications and networking, and sensing is at various stages of technology readiness and making strides toward real world applications. Advances are taking place simultaneously across the discovery, development and deployment
path. And developers of enabling technologies such as cryogenics, electronics and photonics are supporting fundamental research as well as development of systems like quantum computers. QED-C is the premier global quantum consortium that is driven by and for industry. With the mission to enable and grow the quantum industry, QED-C brings together a trusted community to identify and address gaps that need to be filled. There are numerous technical gaps, but also gaps in standards and benchmarks, workforce, and policies to accelerate innovation, especially across borders. This panel will bring together QED-C members who representative all parts of the quantum supply chain to discuss what are the gaps that need to be filled to enable quantum to reach its full potential. The audience will be encouraged to engage and provide additional views and to offer solutions.
Keywords: QED-C, premier global consortium, technical gaps, standards, benchmarks, workforce, quantum supply chain 
Target Audience: The panel should be of interest to all stakeholders in the quantum ecosystem. Academics will be interested in industry’s technology and workforce needs, government representatives will be interested in industry needs for technology, testbeds and infrastructure, as well as policy-related concerns. And industry will be interested in hearing from suppliers, system developers and other parts of the value chain.