Western Sydney University has moved generative AI from a limited experiment to an institution-wide workplace platform, giving every staff member—including casual employees—and Higher Degree Research candidates access to enterprise-grade Microsoft 365 Copilot from July 16, 2026. The university describes itself as the first in New South Wales and the second in Australia to provide Copilot to all staff, but the more consequential development is not the ranking: it is the decision to make AI capability a standard part of university work rather than a privilege reserved for executives, technologists, or selected pilot groups.

A diverse team collaborates outdoors, surrounded by glowing cloud, security, and Microsoft app icons.Background​

Microsoft 365 Copilot brings generative AI into applications that universities already use for communication, collaboration, and administration, including Word, Excel, PowerPoint, Outlook, and Teams. Rather than operating solely as a separate chatbot, it can use the context available through Microsoft 365 to help an authorised user summarise meetings, draft documents, analyse information, prepare presentations, and locate relevant material.
That distinction matters in a university. Academic and professional employees spend much of their working day navigating documents, email, calendars, meetings, policies, research material, course information, and student-support processes, so an AI assistant embedded in those systems can potentially remove more friction than a standalone consumer tool.

From public chatbots to institutional AI​

The release of widely accessible generative AI systems transformed the higher-education debate almost overnight. Universities initially concentrated on student use, academic integrity, plagiarism, assessment security, and whether AI-generated writing could be detected reliably.
The workplace dimension soon became equally important. If graduates are entering organisations where AI assists with writing, analysis, software development, communication, and project management, universities cannot prepare those graduates effectively while treating the technology as something used only outside their own workforce.
Western Sydney University’s rollout represents the next stage of that transition. Instead of approaching AI principally as a threat to established academic processes, the institution is treating it as infrastructure that employees must understand, test, govern, and use responsibly.

A pilot before universal access​

The university did not begin with an unrestricted deployment. It first conducted a 100-user pilot intended to test how Copilot performed in real university workflows and whether it could reduce time spent on repetitive, lower-value activities.
That pilot reportedly demonstrated enough practical value to justify a much broader rollout. The expansion also builds on a memorandum of understanding signed by Western Sydney University and Microsoft in late 2025, indicating that the deployment forms part of a longer partnership rather than a one-off software purchase.
The crucial test now begins. A pilot involving willing or carefully selected participants can identify promising use cases, but universal access exposes differences in digital confidence, job design, information quality, accessibility needs, and attitudes toward automation.

What Western Sydney University Is Deploying​

Every staff member, including casual staff, received access from July 16, while Higher Degree Research candidates were included in the deployment as well. This creates a notably broad user population spanning academics, administrators, librarians, researchers, technical specialists, student-support employees, managers, and people working intermittently or part-time.
Western Sydney University serves more than 44,000 students and operates across a geographically distributed campus environment. At that scale, even modest reductions in routine administrative effort can accumulate into meaningful capacity, although the university will need evidence showing that saved time genuinely reaches teaching, research, and student services.

Copilot inside everyday applications​

Microsoft 365 Copilot can assist with several common categories of work:
  • It can produce an initial draft from instructions, notes, or approved organisational material.
  • It can summarise a Teams meeting and identify decisions, questions, or assigned actions.
  • It can condense a long email thread into its central issues.
  • It can help transform a document into the structure of a presentation.
  • It can assist with preliminary analysis and explanation of information in a spreadsheet.
  • It can rewrite content for a different audience, tone, or level of technical detail.
  • It can help users retrieve information from files and communications they are already permitted to access.
These functions are not equivalent to autonomous decision-making. Copilot generates a proposed output; the employee remains responsible for checking its accuracy, appropriateness, evidence, and compliance with university policy.

Why casual staff are significant​

Including casual employees is an important feature of the rollout because Australian universities depend heavily on sessional teaching and other forms of contingent work. Restricting premium AI tools to permanent employees could create a two-tier workforce in which people performing similar teaching or support duties have materially different access to productivity technology.
Universal access does not automatically eliminate that gap. Casual employees may have less paid time for training, fewer opportunities to join communities of practice, and less familiarity with the university’s information architecture, so equitable licensing must be matched by equitable capability development.

Why research candidates are included​

Higher Degree Research candidates occupy an unusual position: they are students, emerging scholars, and often employees or teaching contributors at the same time. Providing them with an institutionally governed AI environment may be preferable to leaving them to choose among public services with differing privacy terms and data-handling practices.
However, research use demands especially clear rules. A candidate may use Copilot appropriately to organise non-sensitive notes or improve the structure of an administrative document, yet face serious problems if unpublished findings, confidential participant information, restricted datasets, intellectual property, or embargoed material are entered without authorisation.

How Microsoft 365 Copilot Works​

Microsoft 365 Copilot combines large language models with the user’s working context in Microsoft 365. When an employee submits a prompt, the service can ground its response using material available through Microsoft Graph and the organisation’s Microsoft 365 environment, subject to that employee’s existing access rights.
This makes Copilot potentially more useful than a general chatbot. It also means the quality of the deployment depends heavily on identity, permissions, document management, retention, classification, and the accuracy of information already stored across the tenant.

Permission-aware does not mean risk-free​

Microsoft says Copilot does not grant itself access to information that the signed-in user cannot already open. If an employee lacks permission to a particular SharePoint site or document, Copilot should not bypass that restriction merely because the employee asks a broad question.
The difficult issue is that many organisations already have overly broad permissions. A forgotten shared folder, an unrestricted Team, or a poorly configured SharePoint site may expose material to far more people than its owner realises.
Before generative AI, an employee might never discover that material because finding it required knowing where to look. Copilot can make existing access more visible and usable by retrieving relevant content in response to natural-language questions, turning historical permission sprawl into an immediate governance concern.

Grounding and generation​

A simplified Copilot interaction follows several stages:
  1. The user enters a prompt in an application such as Word, Teams, Outlook, or the Microsoft 365 Copilot interface.
  2. The service interprets the request and identifies potentially relevant workplace context.
  3. Microsoft Graph retrieves authorised information that may help ground the response.
  4. A large language model generates an answer based on the prompt and selected context.
  5. The output returns to the user, who must review, correct, and decide whether to use it.
This process can produce highly relevant results when the underlying documents are current, well organised, and clearly written. It can also generate a confident but flawed answer when the available information is incomplete, contradictory, outdated, or poorly selected.

Enterprise data protection​

Enterprise-grade deployment provides controls and contractual protections that are not necessarily present when employees use unmanaged consumer AI accounts. Microsoft states that prompts and responses in covered Microsoft 365 Copilot services receive enterprise data protection, including encryption, tenant separation, administrative controls, and treatment under Microsoft’s commercial data-protection commitments.
Existing identity and security mechanisms continue to matter. Conditional Access, multifactor authentication, sensitivity labels, retention settings, auditing, and role-based permissions form part of the surrounding control environment rather than being replaced by the AI layer.

The Productivity Case​

Western Sydney University’s central argument is that Copilot can reduce repetitive work and give staff more time for students. That is plausible, especially for document-heavy processes, but achieving it requires more than distributing licences.
Generative AI tends to perform best when it accelerates a defined task with a human reviewer. It is less dependable when asked to resolve ambiguity, make consequential judgements, or substitute for expertise that the user does not possess.

Where time savings are most likely​

Early enterprise deployments have repeatedly identified summarisation, rewriting, document preparation, and information retrieval as practical starting points. These tasks are common across universities and normally involve enough human oversight that an imperfect first draft can still have value.
A lecturer might use Copilot to turn class-planning notes into a preliminary lesson outline. A professional employee might summarise a long meeting transcript, while a researcher could use it to improve the organisation of a project update that contains no restricted data.
The strongest gains are likely to appear where the user already knows what a good result looks like. An experienced employee can reject invented details, restore missing nuance, and identify an inappropriate tone much faster than a novice who may accept the output at face value.

Evidence from Australia’s public-sector trial​

The Australian Government’s whole-of-government Copilot trial offers useful context. It distributed thousands of licences across dozens of agencies and found that participants most commonly used the service for summarisation and rewriting, particularly in Teams and Word.
Most respondents in the relevant evaluation reported improved speed, while a smaller majority reported an improvement in work quality. Approximately 40 percent said they had redirected time toward higher-value activities such as stakeholder engagement, mentoring, strategic planning, and product improvement.
Those results were encouraging but qualified. Only about one-third of participants used Copilot daily, some reported that it added time to tasks, and editing remained necessary because generated content could be inaccurate, generic, or poorly adapted to the required context.

Measuring value rather than activity​

Western Sydney University should avoid treating prompt counts, active users, or generated documents as proof of success. High usage may indicate value, but it can also reflect experimentation, novelty, or the creation of unnecessary content.
A stronger evaluation would examine whether Copilot changes measurable outcomes:
  • It should reduce turnaround times for appropriate administrative processes without lowering quality.
  • It should shorten the preparation of routine documents while preserving factual accuracy.
  • It should help employees spend more time on student contact, research, mentoring, and complex problem-solving.
  • It should improve accessibility or consistency for employees who benefit from language and drafting assistance.
  • It should not increase correction work, information incidents, complaints, or low-value digital output.
  • It should provide enough benefit to justify licensing, training, governance, and support costs.
Time saved is meaningful only if the university protects it from being consumed by more meetings, more email, and higher output expectations.

Impact on Teaching and Student Support​

The university’s leadership has framed the rollout around student success, arguing that educators freed from routine administrative work can spend more time with learners. That is the most compelling rationale for the investment, but it is also the hardest outcome to guarantee.
A summarised meeting does not automatically become a better tutorial. The university must redesign processes so that productivity gains create genuine capacity for feedback, curriculum improvement, academic advising, and responsive student services.

Preparing educators to teach in an AI economy​

Students increasingly expect universities to explain how AI changes professional practice, not merely warn them about misconduct. An accounting graduate may encounter AI-assisted financial analysis, a communications graduate may work with automated drafting systems, and a software engineer may collaborate with coding agents.
Educators therefore need practical knowledge of both capability and limitation. Staff who use Copilot in their own work can better demonstrate prompt design, output verification, source checking, disclosure, privacy awareness, and the difference between assistance and accountable judgement.
This does not mean every subject should become an AI course. It means teaching should acknowledge where AI affects the discipline and help students develop the critical skills to use—or deliberately reject—the technology in an informed way.

Reworking curriculum and assessment​

Microsoft will support capability development in areas including curriculum design, student engagement, and agentic AI. Those topics reach beyond workplace efficiency and into the architecture of education itself.
Assessment reform will be particularly important. Tasks that reward only the production of polished generic prose are increasingly vulnerable to automation, while assessments based on oral explanation, iterative work, authentic practice, reflection, verified evidence, and supervised performance may reveal learning more effectively.
Useful redesign questions include:
  • Does the assessment test disciplinary judgement or merely document production?
  • Can students explain the decisions behind their submitted work?
  • Is AI use prohibited, permitted, required, or limited, and is that rule explicit?
  • Does the activity reflect how the relevant profession now operates?
  • Can markers distinguish responsible assistance from the substitution of unverified output?
  • Are students without premium AI subscriptions placed at a disadvantage?

Student-facing communication​

Copilot may help staff rewrite complex policy information in clearer language, prepare summaries, or tailor communication for different audiences. Western Sydney University serves a highly diverse community, so improvements in readability and accessibility could be valuable.
Yet automated simplification can remove legal, procedural, or academic nuance. Any AI-assisted communication concerning enrolment, progression, fees, misconduct, disability support, immigration, welfare, or complaints requires careful human review because a plausible error may materially affect a student’s choices.

Research and Higher Degree Candidates​

Research workflows contain both attractive Copilot use cases and unusually serious risks. Scholars work with large amounts of text, maintain complex project records, prepare reports, coordinate collaborators, and communicate findings across specialist and public audiences.
Copilot can assist with those surrounding tasks, but it must not become an unacknowledged author, an unreliable evidence engine, or an uncontrolled destination for protected research data.

Useful research-administration scenarios​

Relatively low-risk applications may include drafting meeting agendas, summarising authorised project discussions, restructuring administrative material, and producing a preliminary outline for a progress presentation. Researchers can also use AI to improve the clarity of non-confidential communications, provided they verify every substantive claim.
The tool is not a substitute for a specialist academic database or systematic literature-review method. Its workplace search capabilities may retrieve organisational documents, but that does not make its output comprehensive, methodologically reproducible, or suitable as evidence of the scholarly record.

Confidentiality and intellectual property​

Research candidates and supervisors need practical guidance based on information type rather than vague slogans about responsible AI. The decisive question is not simply whether Copilot is “secure,” but whether a particular use is authorised under ethics approval, contractual terms, data-management plans, funder requirements, and university policy.
Sensitive categories may include:
  • Identifiable participant information requires controls consistent with ethics approval and consent.
  • Health, legal, commercial, defence, or culturally restricted material may carry additional obligations.
  • Unpublished findings and patentable discoveries require careful intellectual-property management.
  • Third-party datasets may prohibit processing outside specified systems or purposes.
  • Collaborator information may be governed by agreements that predate generative AI.
  • Peer-review material and confidential manuscripts must remain within applicable professional rules.
Researchers should assume that enterprise protection does not override obligations established elsewhere. A technically permitted action can still be contractually, ethically, or professionally inappropriate.

Training Will Decide the Outcome​

Western Sydney University plans to accompany the rollout with training and a community of practice. This is essential because the gap between having access and achieving value is substantial.
The Australian Government trial found a clear relationship between training and confidence: participants exposed to multiple forms of training reported materially greater confidence than those receiving only one. Context-specific examples also proved more useful than generic instruction.

Beyond prompt engineering​

Prompt writing is the most visible AI skill, but it is not the most important one. Employees must understand how to choose an appropriate task, evaluate the output, protect information, identify missing context, and decide when not to use AI.
A mature training program should cover:
  • Users should classify information before placing it into a prompt or attaching it to an AI-assisted workflow.
  • Users should verify factual claims against authoritative records rather than trusting fluent language.
  • Users should inspect cited or linked source material instead of assuming that retrieval was complete.
  • Users should preserve human accountability for decisions affecting students, employees, research participants, or the public.
  • Users should disclose AI assistance where policy, scholarly practice, or professional standards require it.
  • Users should recognise bias, stereotyping, and inappropriate assumptions in generated content.
  • Users should know how to report security incidents, harmful outputs, and recurring technical problems.

Communities of practice​

A cross-university community of practice can help employees share prompts, workflow patterns, failures, and governance lessons. That is preferable to each school or department independently repeating the same experiments.
The community should not become a showcase containing only success stories. Documented failures are often more valuable than polished demonstrations because they reveal where source quality, permissions, ambiguity, or model behaviour can undermine a workflow.
Representatives should include academics, professional staff, librarians, researchers, cybersecurity specialists, records managers, accessibility experts, legal and ethics advisers, and casual employees. Broad participation can prevent the deployment from being shaped exclusively by enthusiastic early adopters.

Data Governance and Security​

Microsoft 365 Copilot inherits the strengths and weaknesses of the university’s existing Microsoft 365 environment. If information is well classified, access is limited appropriately, and obsolete content is removed, the system can ground responses in a relatively controlled knowledge base.
If permissions are sprawling and document repositories contain conflicting versions, Copilot can expose those weaknesses at machine speed. The deployment is therefore as much an information-governance program as an AI program.

The oversharing problem​

Universities are collaborative by nature. Staff frequently share files across schools, research teams, committees, external partnerships, and temporary projects, creating a complex web of access that can persist long after its original purpose.
Copilot’s natural-language interface may surface content that a user technically had permission to view but did not know existed. That is not necessarily a failure of Copilot’s access controls; it may be evidence that the underlying permissions were too broad.
Western Sydney University should prioritise reviews of public and institution-wide SharePoint sites, legacy Teams, shared research workspaces, executive material, student records, human-resources content, and links created with permissive sharing options.

Records and retention​

AI-generated material can become a university record depending on how it is used. A draft discarded after review differs from an approved policy, formal student communication, meeting decision, research record, or administrative action based on generated analysis.
The institution needs clarity on when prompts, responses, edited outputs, and associated source material fall under records-management or discovery obligations. It must also determine how retention, audit, deletion, and access requests apply to Copilot interactions.

Windows endpoint considerations​

For Windows administrators, the deployment extends beyond assigning cloud licences. Copilot’s usefulness and security depend on properly managed identities, supported Microsoft 365 applications, current Windows devices, browser configuration, endpoint compliance, and consistent access policies.
Conditional Access can restrict service use from unmanaged or risky endpoints, while Microsoft Intune can help enforce device compliance. Multifactor authentication, phishing-resistant credentials for higher-risk roles, timely patching, endpoint detection, and disciplined privilege management remain foundational controls.
AI does not eliminate conventional security work. It increases the value of getting that work right.

Agentic AI Raises the Stakes​

Microsoft’s planned support includes capability development in agentic AI, indicating that the partnership may eventually move beyond prompts and document assistance. Agents can perform multistep tasks, call connected tools, monitor events, and take actions within configured boundaries.
This creates opportunities for workflow automation, but the risk changes when an AI system can do more than suggest text. An inaccurate summary is inconvenient; an agent that updates records, sends communications, or triggers a process can propagate an error before a person notices.

From assistant to actor​

An agent might eventually help coordinate routine enquiries, prepare recurring reports, collect project updates, or guide staff through internal procedures. Properly designed agents could reduce hand-offs and make university services easier to navigate.
However, every action requires defined authority, logging, exception handling, and a clear human owner. Agents dealing with student progression, research approvals, employee matters, procurement, finance, or access rights should face stricter controls than agents performing low-risk administrative preparation.

A safe progression model​

Western Sydney University can reduce risk by introducing agentic workflows in stages:
  1. Begin with read-only retrieval, allowing an agent to locate and summarise approved information.
  2. Add draft generation, but require a named person to review and submit the output.
  3. Permit limited actions in test environments, using synthetic or non-sensitive data.
  4. Introduce tightly scoped production actions, with approval gates and complete audit logs.
  5. Monitor outcomes continuously, including errors, overrides, complaints, and unexpected behaviour.
  6. Expand authority only after evidence, rather than assuming that technical capability proves operational readiness.
The principle should be straightforward: the greater the consequence of an action, the less autonomy the agent should receive without explicit human approval.

Enterprise and Workforce Implications​

Providing Copilot to all staff changes expectations as well as tools. Employees may soon be asked why a task takes as long as it did before AI, even where the work requires judgement that cannot safely be automated.
University leadership must avoid converting productivity technology into an invisible workload escalator. If Copilot reduces drafting time, the benefit should not automatically become a demand for more documents, larger classes, or fewer support resources.

Job redesign rather than job removal​

The most credible near-term outcome is task redistribution. Staff may spend less time preparing first drafts or extracting actions from meetings and more time verifying information, resolving complex cases, mentoring colleagues, and interacting with students.
Some tasks will disappear, while new ones will emerge around AI governance, workflow design, quality assurance, information curation, and agent oversight. That transition will affect roles unevenly, making consultation and transparent workforce planning essential.

Digital equity inside the workforce​

Universal licensing removes one barrier, but capability remains uneven. Employees with strong digital skills, well-organised information, and supportive managers are likely to obtain value faster than colleagues working with fragmented systems or limited training time.
The university should track adoption by employment type, location, accessibility need, discipline, and role category. If permanent professional employees receive extensive workshops while casual educators receive only self-service material, the rollout will reproduce inequity despite nominally universal access.

Competitive Implications for Australian Universities​

Western Sydney University is positioning itself among a relatively small group of universities providing Microsoft 365 Copilot across the entire workforce. That creates reputational value, but competitors will judge the initiative by outcomes rather than licence numbers.
If the university can demonstrate improved student responsiveness, better staff capability, responsible assessment reform, and credible governance, the rollout may strengthen its position as an institution focused on practical digital inclusion. If it produces little more than generic documents and additional compliance work, the first-mover advantage will be short-lived.

Pressure on peer institutions​

Other universities now face a strategic decision. They can fund broad access to an enterprise AI platform, retain targeted licences for selected roles, develop multi-vendor arrangements, or rely more heavily on general AI chat services with institutional controls.
Each model has trade-offs. A Microsoft-centred approach offers deep integration with widely used productivity systems, but it can increase platform dependence and make the university’s AI strategy closely tied to Microsoft’s licensing, roadmap, and cloud architecture.

Avoiding monoculture​

Copilot is not necessarily the best tool for every task. Specialist research search, statistical analysis, software development, qualitative coding, image generation, and discipline-specific work may be better served by other systems.
An effective AI strategy should therefore distinguish between a secure baseline assistant and the full range of tools required for teaching and research. Standardisation can simplify governance, but excessive standardisation may limit experimentation or create the false impression that one vendor’s platform defines AI capability.

Strengths and Opportunities​

Western Sydney University’s approach contains several clear advantages:
  • Universal access supports equity by avoiding a deployment limited to senior employees or selected departments.
  • Integration with existing applications lowers adoption friction because staff can work within familiar Microsoft 365 interfaces.
  • The completed pilot provides an evidence base that is more credible than moving directly from announcement to full deployment.
  • Training and a community of practice can spread effective use cases while exposing failures and governance problems.
  • Enterprise protection may reduce reliance on unmanaged consumer tools for appropriate workplace tasks.
  • Staff experience can improve AI-informed teaching by giving educators practical knowledge of capability, verification, and risk.
  • Administrative time savings could increase student-facing capacity if workload design protects and redirects that time.
  • The Microsoft partnership may accelerate curriculum and agentic-AI capability, giving the university access to technical and adoption expertise.
The most important opportunity is cultural. By allowing the whole workforce to experiment within a governed environment, the university can make AI literacy part of ordinary professional practice rather than an abstract topic delegated to specialists.

Risks and Concerns​

The rollout also creates material challenges that require sustained oversight:
  • Generated information can be confidently wrong, requiring users to verify facts, calculations, quotations, and interpretations.
  • Existing permission problems may become easier to exploit accidentally, because Copilot can retrieve material that users did not know they could access.
  • Sensitive research or student information may be used inappropriately, even when the underlying platform provides enterprise protection.
  • Casual employees may receive less meaningful training, undermining the equity promised by universal licensing.
  • Productivity gains may become workload intensification, with saved time converted into higher output expectations rather than better student contact.
  • Vendor dependence may increase, particularly as Copilot expands from assistance into agents and automated workflows.
  • AI-generated uniformity may weaken institutional voice, producing bland communication and reducing disciplinary nuance.
  • Licensing and support costs may be difficult to justify if sustained usage concentrates in a small set of low-value tasks.
  • Overreliance can erode expertise, especially when inexperienced users accept outputs they are not equipped to evaluate.
  • Assessment reform may lag behind workplace adoption, creating inconsistent messages about what responsible AI use means.
None of these concerns necessarily argues against deployment. They show why the rollout must be treated as a continuing organisational transformation rather than a completed technology installation.

What to Watch Next​

The first meaningful milestone will not be the number of activated licences but the quality of adoption after the initial enthusiasm fades. Western Sydney University should be able to show whether staff continue using Copilot, which workflows deliver repeatable value, and where the platform creates additional work.
Several indicators deserve close attention:

Evidence of student benefit​

The university has connected the investment explicitly to student success. It should therefore measure changes in response times, feedback quality, academic advising, service resolution, curriculum development, and the amount of time educators spend in direct student engagement.

Governance transparency​

Staff and students will need clear, accessible rules covering acceptable use, prohibited data, accountability, disclosure, research requirements, records management, and escalation. Policies should evolve as the technology changes, but frequent revision must not leave users uncertain about current expectations.

Permission remediation​

A large-scale Copilot rollout should prompt measurable improvement in SharePoint and Teams governance. Administrators should watch for reductions in broad sharing, closure of abandoned workspaces, clearer ownership, better sensitivity labelling, and stronger lifecycle controls.

Training participation and inclusion​

The university should report whether casual staff, research candidates, academics, and professional employees can participate meaningfully in training. Completion statistics alone will be insufficient; scenario-based assessments and observed workflow outcomes will provide better evidence of capability.

The move into agents​

Any transition from drafting assistance to systems that take actions will mark a major increase in operational risk. Watch for approval controls, auditability, testing practices, role separation, and explicit limits on autonomous handling of consequential student or employee matters.

Independent evaluation​

Vendor and institutional case studies naturally emphasise success. A credible evaluation should include unsuccessful use cases, security findings, employee concerns, accessibility outcomes, costs, and situations in which another tool—or no AI tool—performed better.
Western Sydney University’s universal Copilot rollout is a significant step because it treats AI fluency as a shared institutional capability rather than a specialist experiment. Its ultimate importance will depend on whether the university can convert faster drafting and summarisation into better teaching, stronger research, more responsive student services, and fairer access to digital capability while preserving privacy, academic judgement, and human accountability.

References​

  1. Primary source: Microsoft Source
    Published: 2026-07-21T21:00:00+00:00
  2. Official source: learn.microsoft.com
  3. Related coverage: wa.gov.au
  4. Related coverage: windowscentral.com
  5. Related coverage: techradar.com
  6. Related coverage: tomshardware.com