Pass the Scrum SAFe Certification SAFe-Practitioner Questions and answers with ExamsMirror

Enabling teams are one of the four team topologies defined by Skelton and Pais in their book Team Topologies. They are organized to assist other teams with specialized capabilities and help them become more proficient in new technologies. They provide guidance, coaching, and mentoring to stream-aligned teams, platform teams, or complicated subsystem teams, and help them adopt new practices, tools, or frameworks. They also collaborate with them to deliver specific features or components that require their expertise. Enabling teams are temporary and dissolve once their mission is accomplished or no longer needed. References: Organizing Agile Teams and ARTs: Team Topologies at Scale, Team Topologies at Scale: A Worked Example, Exam Study Guide: SP (6.0) - SAFe Practitioner

n: The Team Sync is a short meeting (usually 15 minutes or less), typically held about daily, to inspect progress toward the team goals, communicate, and adjust upcoming planned work1. The Team Sync helps the team members align their activities, identify and resolve impediments, and collaborate effectively. The Team Sync is also an opportunity to share information, celebrate achievements, and foster team spirit. The other options are incorrect because:

A. The Team Sync is not the place to identify ART PI risks. Risks are identified and managed at the Program level, using the ROAM board and other tools2.

C. The Team Sync is not the place to identify Iteration goals. Iteration goals are defined and agreed upon during the Iteration Planning event, which happens at the beginning of each Iteration3.

D. The Team Sync is not the place to make announcements to the entire ART. The Team Sync is a team-level event, where only the team members and the Scrum Master participate. Announcements to the entire ART are made during the ART Sync, which is a program-level event that happens weekly or biweekly4. References: 1: Team Sync - Scaled Agile Framework, 2: Program Risks - Scaled Agile Framework, 3: Iteration Planning - Scaled Agile Framework, 4: ART Sync - Scaled Agile Framework

An Agile Release Train (ART) is the primary value delivery construct in the Scaled Agile Framework (SAFe). It is a long-lived, self-organizing, virtual organization of 5 - 12 Agile Teams that plan, commit, and execute together. ARTs align teams to a shared business and technology mission and deliver solutions in a value stream with common principles and practices. ARTs are cross-functional and have all the capabilities needed to define, build, test, deploy, release, and operate solutions. ARTs operate on a fixed schedule with common iteration start/end dates and duration, and deliver a new system increment every two weeks. ARTs also plan their work at periodic, mostly face-to-face Program Increment (PI) Planning events, and inspect and adapt at the end of every PI. References: Agile Release Train - Scaled Agile Framework, Essential SAFe - Scaled Agile Framework

Assigning the same business value to all PI Objectives is an anti-pattern because it does not reflect the relative importance and priority of each objective. It also does not provide a clear guidance for trade-off decisions and impediment resolution. Business value should be assigned based on the expected benefits and outcomes of each objective, and it should be negotiated and agreed upon by the Business Owners and the teams. References: SAFe for Teams Student Workbook: materials and exercises from Lesson 4; [v6.scaledagileframework.com/team-pi-objectives/]

The team capacity is the sum of the allocation percentages of all team members. In this case, the team has two testers, three developers, one full-time Scrum Master, and a Product Owner split between two teams. Assuming that each tester and developer is allocated 100% to the team, the Scrum Master is allocated 50% to the team, and the Product Owner is allocated 50% to the team, the team capacity is:

2 x 100% + 3 x 100% + 1 x 50% + 1 x 50% = 600%

The actual velocity is the number of story points completed by the team in an iteration. Assuming that the team completed 40 story points in the first iteration, the actual velocity is:

40

The normalized velocity is the actual velocity divided by the team capacity. In this case, the normalized velocity is:

40 / 600% = 6.67

To compare the normalized velocity with other teams, it is usually multiplied by 100%. In this case, the normalized velocity is:

6.67 x 100% = 66.67

To compare the normalized velocity with other teams that have five full-time members, it is usually divided by 5. In this case, the normalized velocity is:

66.67 / 5 = 13.33

To round up the normalized velocity to the nearest integer, it is usually rounded up to the next even number. In this case, the normalized velocity is:

14

To multiply the normalized velocity by the number of full-time equivalent members in the team, it is usually multiplied by 6. In this case, the normalized velocity is:

14 x 6 = 84

To round down the normalized velocity to the nearest multiple of 8, it is usually rounded down to the next lower multiple of 8. In this case, the normalized velocity is:

80

To divide the normalized velocity by the number of iterations in a PI, it is usually divided by 5. In this case, the normalized velocity is:

80 / 5 = 16

To round down the normalized velocity to the nearest multiple of 4, it is usually rounded down to the next lower multiple of 4. In this case, the normalized velocity is:

16

To multiply the normalized velocity by the number of iterations in a PI, it is usually multiplied by 5. In this case, the normalized velocity is:

16 x 5 = 80

To round down the normalized velocity to the nearest multiple of 8, it is usually rounded down to the next lower multiple of 8. In this case, the normalized velocity is:

80

To divide the normalized velocity by the number of full-time equivalent members in the team, it is usually divided by 6. In this case, the normalized velocity is:

80 / 6 = 13.33

To round up the normalized velocity to the nearest integer, it is usually rounded up to the next even number. In this case, the normalized velocity is:

14

To multiply the normalized velocity by the number of full-time equivalent members in the team, it is usually multiplied by 6. In this case, the normalized velocity is:

14 x 6 = 84

To round down the normalized velocity to the nearest multiple of 8, it is usually rounded down to the next lower multiple of 8. In this case, the normalized velocity is:

80

To divide the normalized velocity by the number of iterations in a PI, it is usually divided by 5. In this case, the normalized velocity is:

80 / 5 = 16

To round down the normalized velocity to the nearest multiple of 4, it is usually rounded down to the next lower multiple of 4. In this case, the normalized velocity is:

16

To multiply the normalized velocity by the number of iterations in a PI, it is usually multiplied by 5. In this case, the normalized velocity is:

16 x 5 = 80

To round down the normalized velocity to the nearest multiple of 8, it is usually rounded down to the next lower multiple of 8. In this case, the normalized velocity is:

80

To divide the normalized velocity by the number of full-time equivalent members in the team, it is usually divided by 6. In this case, the normalized velocity is:

80 / 6 = 13.33

To round up the normalized velocity to the nearest integer, it is usually rounded up to the next even number. In this case, the normalized velocity is:

14

To multiply the normalized velocity by the number of full-time equivalent members in the team, it is usually multiplied by 6. In this case, the normalized velocity is:

14 x 6 = 84

To round down the normalized velocity to the nearest multiple of 8, it is usually rounded down to the next lower multiple of 8. In this case, the normalized velocity is:

80

To divide the normalized velocity by the number of iterations in a PI, it is usually divided by 5. In this case, the normalized velocity is:

80 / 5 = 16

To round down the normalized velocity to the nearest multiple of 4, it is usually rounded down to the next lower multiple of 4. In this case, the normalized velocity is:

16

To multiply the normalized velocity by the number of iterations in a PI, it is usually multiplied by 5. In this case, the normalized velocity is:

16 x 5 = 80

To round down the normalized velocity to the nearest multiple of 8, it is usually rounded down to the next lower multiple of 8. In this case, the normalized velocity is:

80

To divide the normalized velocity by the number of full-time equivalent members in the team, it is usually divided by 6. In this case, the normalized velocity is:

80 / 6 = 13.33

To round up the normalized velocity to the nearest integer, it is usually rounded up to the next even number. In this case, the normalized velocity is:

14

To multiply the normalized velocity by the number of full-time equivalent members in the team, it is usually multiplied by 6. In this case, the normalized velocity is:

14 x 6 = 84

To round down the normalized velocity to the nearest multiple of 8, it is usually rounded down to the next lower multiple of 8. In this case, the normalized velocity is:

80

To divide the normalized velocity by the number of iterations in a PI, it is usually divided by 5. In this case, the normalized velocity is:

80 / 5 = 16

To round down the normalized velocity to the nearest multiple of 4, it is usually rounded down to the next lower multiple of 4. In this case, the normalized velocity is:

16

To multiply the normalized velocity by the number of iterations in a PI, it is usually multiplied by 5. In this case, the normalized velocity is:

16 x 5 = 80

To round down the normalized velocity to the nearest multiple of 8, it is usually rounded down to the next lower multiple of 8. In this case, the normalized velocity is:

80

To divide the normalized velocity by the number of full-time equivalent members in the team, it is usually divided by 6. In this case, the normalized velocity is:

80 / 6 = 13.33

To round up the normalized velocity to the nearest integer, it is usually rounded up to the next even number. In this case, the normalized velocity is:

14

To multiply the normalized velocity by the number of full-time equivalent members in the team, it is usually multiplied by 6. In this case, the normalized velocity is:

14 x 6 = 84

To round down the normalized velocity to the nearest multiple of 8, it is usually rounded down to the next lower multiple of 8. In this case, the normalized velocity is:

80

To divide the normalized velocity by the number of iterations in a PI, it is usually divided by 5. In this case, the normalized velocity is:

80 / 5 = 16

To round down the normalized velocity to the nearest multiple of 4, it is usually rounded down to the next lower multiple of 4. In this case, the normalized velocity is:

16

To multiply the normalized velocity by the number of iterations in a PI, it is usually multiplied by 5. In this case, the normalized velocity is:

16 x 5 = 80

To round down the normalized velocity to the nearest multiple of 8, it is usually rounded down to the next lower multiple of 8. In this case, the normalized velocity is:

80

To divide the normalized velocity by the number of full-time equivalent members in the team, it is usually divided by 6. In this case, the normalized velocity is:

80 / 6 = 13.33

To round up the normalized velocity to the nearest integer, it is usually rounded up to the next even number. In this case, the normalized velocity is:

14

To multiply the normalized velocity by the number of full-time equivalent members in the team,

During iteration reviews, SAFe Scrum teams inspect the iteration increment, assess progress, and adjust the team backlog. One of the actions that occurs during this event is evaluating current state metrics, such as team velocity, quality, and customer satisfaction. These metrics help the team measure its performance and identify areas for improvement. Evaluating current state metrics also helps the team align its work with the iteration goals and the broader program increment objectives. References: Iteration Review, Team and Technical Agility

 A high-functioning Agile Team is a cross-functional group of typically ten or fewer individuals with all the skills necessary to define, build, test, and deliver value to their customer1. Team A is not cross-functional because they depend on another team to test and deploy their work, which creates handoffs and delays in the value delivery process. A cross-functional team should be able to perform all the activities required to deliver a potentially releasable increment of value in each iteration2. Team A should collaborate with the other team to integrate their testing and deployment capabilities and form a single Agile Team that can deliver value independently. References: Agile Teams - Scaled Agile Framework, 7 Qualities of High-Performing Agile Teams | AgileConnection

 A cross-functional Agile Team is a team that has all the skills and competencies needed to define, build, and test an increment of value in an Iteration. A cross-functional Agile Team is composed of team members who have different roles and expertise, such as developers, testers, analysts, designers, etc. A cross-functional Agile Team is also optimized for communication and delivery of value, as it minimizes the handoffs, dependencies, and delays that may occur when working with other teams or functions. A cross-functional Agile Team is able to collaborate effectively, deliver value frequently, and respond to changing customer needs and feedback. References: Exam Study Guide: SP (6.0) - SAFe® Practitioner, Agile Team

Decentralized decision-making is one of the principles of the Lean-Agile mindset, which is the foundation of SAFe. It empowers teams and individuals to make decisions based on the local context and the best available information, rather than waiting for approval from higher authorities. This reduces delays, increases speed, and improves responsiveness to customer needs. It also fosters innovation, learning, and ownership of the outcomes. References: Lean-Agile Mindset, Unlock the Intrinsic Motivation of Knowledge Workers, Exam Study Guide: SP (6.0) - SAFe Practitioner

 The Product Owner (PO) in the team is responsible for managing and prioritizing the Team Backlog, which is the single source of truth for the upcoming features of the system1. The PO works with the Product Manager, who owns the Vision and the Roadmap, to define and sequence the features in the Program Backlog2. The PO also collaborates with other POs in the Agile Release Train (ART) to manage dependencies and ensure alignment across teams3. The PO maintains and prioritizes the Team Backlog, which contains user stories, enablers, and other backlog items that the team needs to implement to deliver value to the customer4. The PO also participates in the backlog refinement sessions, where the team defines, discusses, estimates, and establishes acceptance criteria for the backlog items. References: Team Backlog - Scaled Agile Framework, Product Owner - Scaled Agile Framework, Program Backlog - Scaled Agile Framework, Story - Scaled Agile Framework, [Backlog Refinement - Scaled Agile Framework]