Daskerel Simulation School / Electronics and Connected-Systems Learner

Digital Electronics and IoT Foundations

Learn circuit reasoning, digital logic, embedded control, sensors, IoT communication, and verification entirely through clearly labelled simulation.

Simulation schematicsEmulated firmware evidenceConnected-device verification portfolio
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Paid all-school membership

£34.80 including UK VAT (£29 before VAT) / month

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Released digital scope

Theory, circuit simulation, logic design, microcontroller emulation, synthetic telemetry, and control-system modelling.

Safety boundary

Simulation only. No mains electricity, hazardous batteries, soldering, RF transmission, physical robotics, remote hardware, or unsupervised equipment use.

Academic alignment

This pathway progresses from UK Level 3 through Level 7 learning depth. It is Daskerel-authored education and does not itself award regulated qualifications, university credit, a bachelor's degree, or a master's degree.

Check official UK qualification comparisons

Academic progression

Build from college foundations to postgraduate research depth.

Level 3

College foundation

4 modules

College foundation comparable in challenge to A level, T Level, or Level 3 diploma study.

Depth: Use quantities, circuit laws, analogue signals, and digital logic in safe simulation.

Entry: GCSE-level mathematics and science; no physical laboratory access required.

Assessment: Calculation, simulation, truth-table, and verification portfolio.

Level 4

Higher education introduction

4 modules

Introductory higher education comparable in challenge to a CertHE, HNC, or first undergraduate year.

Depth: Integrate firmware, sensors, communications, feedback, and verification in guided connected systems.

Entry: Level 3 electronics evidence or equivalent knowledge.

Assessment: Emulated connected-system design and verification capstone.

Level 5

Applied specialism

4 modules

Intermediate higher education comparable in challenge to a DipHE, HND, foundation degree, or second undergraduate year.

Depth: Analyse embedded architectures, signal chains, communications, timing, and hardware-software integration.

Entry: Level 4 pathway evidence plus algebra, programming, and circuit-analysis competence.

Assessment: Embedded-system architecture, protocol tests, fault injection, and design defence.

Level 6

Honours-level integration

4 modules

Advanced undergraduate study comparable in challenge to a bachelor's degree final year.

Depth: Design and evaluate complex electronic systems using advanced control, communications, reliability, and independent inquiry.

Entry: Level 5 pathway evidence and confidence with calculus, signals, and embedded programming.

Assessment: Honours-style simulated engineering project, dissertation, verification dossier, and presentation.

Level 7

Postgraduate mastery

4 modules

Postgraduate study comparable in challenge to a master's degree.

Depth: Critically investigate cyber-physical systems, advanced sensing, resilient architectures, and research evidence.

Entry: Level 6 pathway evidence or equivalent electronics degree-level capability.

Assessment: Research review, original simulation study, publishable technical paper, and viva.

Platform-wide module outputs

Every module now feeds portfolio proof and CV readiness.

Lesson proof

Concept, demo, checklist, lab, and assignment evidence.

Portfolio pack

Requirement, artifact, validation, risk note, and interview story.

CV signal

Role-specific skill statement linked to a score or artifact.

Review queue

Submitted evidence can support dashboard, readiness, and career exports.

Open materials

Electrical quantities units and simulation safetyLesson + portfolio pack + CV evidenceCircuit principles resistance voltage and currentLesson + portfolio pack + CV evidenceAnalogue components signals and measurementLesson + portfolio pack + CV evidenceDigital logic truth tables and stateLesson + portfolio pack + CV evidenceMicrocontrollers firmware and interfacesLesson + portfolio pack + CV evidenceSensors IoT telemetry and communicationLesson + portfolio pack + CV evidenceFeedback control reliability and system verificationLesson + portfolio pack + CV evidenceSimulated connected-systems capstoneLesson + portfolio pack + CV evidenceEmbedded systems architecture real-time behaviour and schedulingLesson + portfolio pack + CV evidenceDigital signal processing sampling filtering and estimationLesson + portfolio pack + CV evidenceConnected protocols edge computing and secure device identityLesson + portfolio pack + CV evidenceElectronic system integration testing and fault diagnosisLesson + portfolio pack + CV evidenceAdvanced control state-space modelling and optimisationLesson + portfolio pack + CV evidenceCommunication systems coding noise and link analysisLesson + portfolio pack + CV evidenceDependable electronics safety reliability and assuranceLesson + portfolio pack + CV evidenceIndependent electronics and IoT honours design projectLesson + portfolio pack + CV evidenceAdvanced cyber-physical systems and digital twinsLesson + portfolio pack + CV evidenceIntelligent sensing fusion and edge inferenceLesson + portfolio pack + CV evidenceResilient connected systems research and assuranceLesson + portfolio pack + CV evidencePostgraduate electronics and connected-systems dissertationLesson + portfolio pack + CV evidence

Certification objective coverage

Every provider-aligned module is connected to a lesson, labs, mock questions, and implementation proof.

This is the track-level audit view for blueprint alignment. Exact exam wording should still be checked against the current official provider guide before public exam-code claims are made.

digital-electronics-iot-foundations.electrical-quantities-units-and-simulation-safety.01 / 5% weight

Apply Electrical quantities units and simulation safety decisions to Electronics and Connected-Systems Learner scenarios

Mapped
Open mapped lesson

Mock questions

6

Lab evidence

6

Implementation proof

  • Define Electrical quantities units and simulation safety in plain language and explain the provider service family it belongs to.
  • Show how Electrical quantities units and simulation safety is implemented through a guided configuration, simulator, command, diagram, notebook, or case study.
  • Capture evidence with screenshots, command output, logs, metrics, topology state, policy review, query result, or troubleshooting notes.
  • Connect the evidence to a portfolio pack, CV-ready skill statement, and mock-test weak-domain recovery action.

Evidence requirements

  • Correct scenario decision in mock exam
  • Written explanation of the key requirement or constraint
  • Hands-on lab evidence or troubleshooting proof
  • Portfolio pack with requirement, artifact, validation, risk note, and interview story
  • CV-ready skill statement linked to a score, artifact, or project result

digital-electronics-iot-foundations.circuit-principles-resistance-voltage-and-current.02 / 5% weight

Apply Circuit principles resistance voltage and current decisions to Electronics and Connected-Systems Learner scenarios

Mapped
Open mapped lesson

Mock questions

6

Lab evidence

6

Implementation proof

  • Define Circuit principles resistance voltage and current in plain language and explain the provider service family it belongs to.
  • Show how Circuit principles resistance voltage and current is implemented through a guided configuration, simulator, command, diagram, notebook, or case study.
  • Capture evidence with screenshots, command output, logs, metrics, topology state, policy review, query result, or troubleshooting notes.
  • Connect the evidence to a portfolio pack, CV-ready skill statement, and mock-test weak-domain recovery action.

Evidence requirements

  • Correct scenario decision in mock exam
  • Written explanation of the key requirement or constraint
  • Hands-on lab evidence or troubleshooting proof
  • Portfolio pack with requirement, artifact, validation, risk note, and interview story
  • CV-ready skill statement linked to a score, artifact, or project result

digital-electronics-iot-foundations.analogue-components-signals-and-measurement.03 / 5% weight

Apply Analogue components signals and measurement decisions to Electronics and Connected-Systems Learner scenarios

Mapped
Open mapped lesson

Mock questions

6

Lab evidence

6

Implementation proof

  • Define Analogue components signals and measurement in plain language and explain the provider service family it belongs to.
  • Show how Analogue components signals and measurement is implemented through a guided configuration, simulator, command, diagram, notebook, or case study.
  • Capture evidence with screenshots, command output, logs, metrics, topology state, policy review, query result, or troubleshooting notes.
  • Connect the evidence to a portfolio pack, CV-ready skill statement, and mock-test weak-domain recovery action.

Evidence requirements

  • Correct scenario decision in mock exam
  • Written explanation of the key requirement or constraint
  • Hands-on lab evidence or troubleshooting proof
  • Portfolio pack with requirement, artifact, validation, risk note, and interview story
  • CV-ready skill statement linked to a score, artifact, or project result

digital-electronics-iot-foundations.digital-logic-truth-tables-and-state.04 / 5% weight

Apply Digital logic truth tables and state decisions to Electronics and Connected-Systems Learner scenarios

Mapped
Open mapped lesson

Mock questions

6

Lab evidence

6

Implementation proof

  • Define Digital logic truth tables and state in plain language and explain the provider service family it belongs to.
  • Show how Digital logic truth tables and state is implemented through a guided configuration, simulator, command, diagram, notebook, or case study.
  • Capture evidence with screenshots, command output, logs, metrics, topology state, policy review, query result, or troubleshooting notes.
  • Connect the evidence to a portfolio pack, CV-ready skill statement, and mock-test weak-domain recovery action.

Evidence requirements

  • Correct scenario decision in mock exam
  • Written explanation of the key requirement or constraint
  • Hands-on lab evidence or troubleshooting proof
  • Portfolio pack with requirement, artifact, validation, risk note, and interview story
  • CV-ready skill statement linked to a score, artifact, or project result

digital-electronics-iot-foundations.microcontrollers-firmware-and-interfaces.05 / 5% weight

Apply Microcontrollers firmware and interfaces decisions to Electronics and Connected-Systems Learner scenarios

Mapped
Open mapped lesson

Mock questions

6

Lab evidence

6

Implementation proof

  • Define Microcontrollers firmware and interfaces in plain language and explain the provider service family it belongs to.
  • Show how Microcontrollers firmware and interfaces is implemented through a guided configuration, simulator, command, diagram, notebook, or case study.
  • Capture evidence with screenshots, command output, logs, metrics, topology state, policy review, query result, or troubleshooting notes.
  • Connect the evidence to a portfolio pack, CV-ready skill statement, and mock-test weak-domain recovery action.

Evidence requirements

  • Correct scenario decision in mock exam
  • Written explanation of the key requirement or constraint
  • Hands-on lab evidence or troubleshooting proof
  • Portfolio pack with requirement, artifact, validation, risk note, and interview story
  • CV-ready skill statement linked to a score, artifact, or project result

digital-electronics-iot-foundations.sensors-iot-telemetry-and-communication.06 / 5% weight

Apply Sensors IoT telemetry and communication decisions to Electronics and Connected-Systems Learner scenarios

Mapped
Open mapped lesson

Mock questions

6

Lab evidence

6

Implementation proof

  • Define Sensors IoT telemetry and communication in plain language and explain the provider service family it belongs to.
  • Show how Sensors IoT telemetry and communication is implemented through a guided configuration, simulator, command, diagram, notebook, or case study.
  • Capture evidence with screenshots, command output, logs, metrics, topology state, policy review, query result, or troubleshooting notes.
  • Connect the evidence to a portfolio pack, CV-ready skill statement, and mock-test weak-domain recovery action.

Evidence requirements

  • Correct scenario decision in mock exam
  • Written explanation of the key requirement or constraint
  • Hands-on lab evidence or troubleshooting proof
  • Portfolio pack with requirement, artifact, validation, risk note, and interview story
  • CV-ready skill statement linked to a score, artifact, or project result

digital-electronics-iot-foundations.feedback-control-reliability-and-system-verification.07 / 5% weight

Apply Feedback control reliability and system verification decisions to Electronics and Connected-Systems Learner scenarios

Mapped
Open mapped lesson

Mock questions

6

Lab evidence

6

Implementation proof

  • Define Feedback control reliability and system verification in plain language and explain the provider service family it belongs to.
  • Show how Feedback control reliability and system verification is implemented through a guided configuration, simulator, command, diagram, notebook, or case study.
  • Capture evidence with screenshots, command output, logs, metrics, topology state, policy review, query result, or troubleshooting notes.
  • Connect the evidence to a portfolio pack, CV-ready skill statement, and mock-test weak-domain recovery action.

Evidence requirements

  • Correct scenario decision in mock exam
  • Written explanation of the key requirement or constraint
  • Hands-on lab evidence or troubleshooting proof
  • Portfolio pack with requirement, artifact, validation, risk note, and interview story
  • CV-ready skill statement linked to a score, artifact, or project result

digital-electronics-iot-foundations.simulated-connected-systems-capstone.08 / 5% weight

Apply Simulated connected-systems capstone decisions to Electronics and Connected-Systems Learner scenarios

Mapped
Open mapped lesson

Mock questions

6

Lab evidence

6

Implementation proof

  • Define Simulated connected-systems capstone in plain language and explain the provider service family it belongs to.
  • Show how Simulated connected-systems capstone is implemented through a guided configuration, simulator, command, diagram, notebook, or case study.
  • Capture evidence with screenshots, command output, logs, metrics, topology state, policy review, query result, or troubleshooting notes.
  • Connect the evidence to a portfolio pack, CV-ready skill statement, and mock-test weak-domain recovery action.

Evidence requirements

  • Correct scenario decision in mock exam
  • Written explanation of the key requirement or constraint
  • Hands-on lab evidence or troubleshooting proof
  • Portfolio pack with requirement, artifact, validation, risk note, and interview story
  • CV-ready skill statement linked to a score, artifact, or project result

digital-electronics-iot-foundations.embedded-systems-architecture-real-time-behaviour-and-scheduling.09 / 5% weight

Apply Embedded systems architecture real-time behaviour and scheduling decisions to Electronics and Connected-Systems Learner scenarios

Mapped
Open mapped lesson

Mock questions

6

Lab evidence

6

Implementation proof

  • Define Embedded systems architecture real-time behaviour and scheduling in plain language and explain the provider service family it belongs to.
  • Show how Embedded systems architecture real-time behaviour and scheduling is implemented through a guided configuration, simulator, command, diagram, notebook, or case study.
  • Capture evidence with screenshots, command output, logs, metrics, topology state, policy review, query result, or troubleshooting notes.
  • Connect the evidence to a portfolio pack, CV-ready skill statement, and mock-test weak-domain recovery action.

Evidence requirements

  • Correct scenario decision in mock exam
  • Written explanation of the key requirement or constraint
  • Hands-on lab evidence or troubleshooting proof
  • Portfolio pack with requirement, artifact, validation, risk note, and interview story
  • CV-ready skill statement linked to a score, artifact, or project result

digital-electronics-iot-foundations.digital-signal-processing-sampling-filtering-and-estimation.10 / 5% weight

Apply Digital signal processing sampling filtering and estimation decisions to Electronics and Connected-Systems Learner scenarios

Mapped
Open mapped lesson

Mock questions

6

Lab evidence

6

Implementation proof

  • Define Digital signal processing sampling filtering and estimation in plain language and explain the provider service family it belongs to.
  • Show how Digital signal processing sampling filtering and estimation is implemented through a guided configuration, simulator, command, diagram, notebook, or case study.
  • Capture evidence with screenshots, command output, logs, metrics, topology state, policy review, query result, or troubleshooting notes.
  • Connect the evidence to a portfolio pack, CV-ready skill statement, and mock-test weak-domain recovery action.

Evidence requirements

  • Correct scenario decision in mock exam
  • Written explanation of the key requirement or constraint
  • Hands-on lab evidence or troubleshooting proof
  • Portfolio pack with requirement, artifact, validation, risk note, and interview story
  • CV-ready skill statement linked to a score, artifact, or project result

digital-electronics-iot-foundations.connected-protocols-edge-computing-and-secure-device-identity.11 / 5% weight

Apply Connected protocols edge computing and secure device identity decisions to Electronics and Connected-Systems Learner scenarios

Mapped
Open mapped lesson

Mock questions

6

Lab evidence

6

Implementation proof

  • Define Connected protocols edge computing and secure device identity in plain language and explain the provider service family it belongs to.
  • Show how Connected protocols edge computing and secure device identity is implemented through a guided configuration, simulator, command, diagram, notebook, or case study.
  • Capture evidence with screenshots, command output, logs, metrics, topology state, policy review, query result, or troubleshooting notes.
  • Connect the evidence to a portfolio pack, CV-ready skill statement, and mock-test weak-domain recovery action.

Evidence requirements

  • Correct scenario decision in mock exam
  • Written explanation of the key requirement or constraint
  • Hands-on lab evidence or troubleshooting proof
  • Portfolio pack with requirement, artifact, validation, risk note, and interview story
  • CV-ready skill statement linked to a score, artifact, or project result

digital-electronics-iot-foundations.electronic-system-integration-testing-and-fault-diagnosis.12 / 5% weight

Apply Electronic system integration testing and fault diagnosis decisions to Electronics and Connected-Systems Learner scenarios

Mapped
Open mapped lesson

Mock questions

6

Lab evidence

6

Implementation proof

  • Define Electronic system integration testing and fault diagnosis in plain language and explain the provider service family it belongs to.
  • Show how Electronic system integration testing and fault diagnosis is implemented through a guided configuration, simulator, command, diagram, notebook, or case study.
  • Capture evidence with screenshots, command output, logs, metrics, topology state, policy review, query result, or troubleshooting notes.
  • Connect the evidence to a portfolio pack, CV-ready skill statement, and mock-test weak-domain recovery action.

Evidence requirements

  • Correct scenario decision in mock exam
  • Written explanation of the key requirement or constraint
  • Hands-on lab evidence or troubleshooting proof
  • Portfolio pack with requirement, artifact, validation, risk note, and interview story
  • CV-ready skill statement linked to a score, artifact, or project result

digital-electronics-iot-foundations.advanced-control-state-space-modelling-and-optimisation.13 / 5% weight

Apply Advanced control state-space modelling and optimisation decisions to Electronics and Connected-Systems Learner scenarios

Mapped
Open mapped lesson

Mock questions

6

Lab evidence

6

Implementation proof

  • Define Advanced control state-space modelling and optimisation in plain language and explain the provider service family it belongs to.
  • Show how Advanced control state-space modelling and optimisation is implemented through a guided configuration, simulator, command, diagram, notebook, or case study.
  • Capture evidence with screenshots, command output, logs, metrics, topology state, policy review, query result, or troubleshooting notes.
  • Connect the evidence to a portfolio pack, CV-ready skill statement, and mock-test weak-domain recovery action.

Evidence requirements

  • Correct scenario decision in mock exam
  • Written explanation of the key requirement or constraint
  • Hands-on lab evidence or troubleshooting proof
  • Portfolio pack with requirement, artifact, validation, risk note, and interview story
  • CV-ready skill statement linked to a score, artifact, or project result

digital-electronics-iot-foundations.communication-systems-coding-noise-and-link-analysis.14 / 5% weight

Apply Communication systems coding noise and link analysis decisions to Electronics and Connected-Systems Learner scenarios

Mapped
Open mapped lesson

Mock questions

6

Lab evidence

6

Implementation proof

  • Define Communication systems coding noise and link analysis in plain language and explain the provider service family it belongs to.
  • Show how Communication systems coding noise and link analysis is implemented through a guided configuration, simulator, command, diagram, notebook, or case study.
  • Capture evidence with screenshots, command output, logs, metrics, topology state, policy review, query result, or troubleshooting notes.
  • Connect the evidence to a portfolio pack, CV-ready skill statement, and mock-test weak-domain recovery action.

Evidence requirements

  • Correct scenario decision in mock exam
  • Written explanation of the key requirement or constraint
  • Hands-on lab evidence or troubleshooting proof
  • Portfolio pack with requirement, artifact, validation, risk note, and interview story
  • CV-ready skill statement linked to a score, artifact, or project result

digital-electronics-iot-foundations.dependable-electronics-safety-reliability-and-assurance.15 / 5% weight

Apply Dependable electronics safety reliability and assurance decisions to Electronics and Connected-Systems Learner scenarios

Mapped
Open mapped lesson

Mock questions

6

Lab evidence

6

Implementation proof

  • Define Dependable electronics safety reliability and assurance in plain language and explain the provider service family it belongs to.
  • Show how Dependable electronics safety reliability and assurance is implemented through a guided configuration, simulator, command, diagram, notebook, or case study.
  • Capture evidence with screenshots, command output, logs, metrics, topology state, policy review, query result, or troubleshooting notes.
  • Connect the evidence to a portfolio pack, CV-ready skill statement, and mock-test weak-domain recovery action.

Evidence requirements

  • Correct scenario decision in mock exam
  • Written explanation of the key requirement or constraint
  • Hands-on lab evidence or troubleshooting proof
  • Portfolio pack with requirement, artifact, validation, risk note, and interview story
  • CV-ready skill statement linked to a score, artifact, or project result

digital-electronics-iot-foundations.independent-electronics-and-iot-honours-design-project.16 / 5% weight

Apply Independent electronics and IoT honours design project decisions to Electronics and Connected-Systems Learner scenarios

Mapped
Open mapped lesson

Mock questions

6

Lab evidence

6

Implementation proof

  • Define Independent electronics and IoT honours design project in plain language and explain the provider service family it belongs to.
  • Show how Independent electronics and IoT honours design project is implemented through a guided configuration, simulator, command, diagram, notebook, or case study.
  • Capture evidence with screenshots, command output, logs, metrics, topology state, policy review, query result, or troubleshooting notes.
  • Connect the evidence to a portfolio pack, CV-ready skill statement, and mock-test weak-domain recovery action.

Evidence requirements

  • Correct scenario decision in mock exam
  • Written explanation of the key requirement or constraint
  • Hands-on lab evidence or troubleshooting proof
  • Portfolio pack with requirement, artifact, validation, risk note, and interview story
  • CV-ready skill statement linked to a score, artifact, or project result

digital-electronics-iot-foundations.advanced-cyber-physical-systems-and-digital-twins.17 / 5% weight

Apply Advanced cyber-physical systems and digital twins decisions to Electronics and Connected-Systems Learner scenarios

Mapped
Open mapped lesson

Mock questions

6

Lab evidence

6

Implementation proof

  • Define Advanced cyber-physical systems and digital twins in plain language and explain the provider service family it belongs to.
  • Show how Advanced cyber-physical systems and digital twins is implemented through a guided configuration, simulator, command, diagram, notebook, or case study.
  • Capture evidence with screenshots, command output, logs, metrics, topology state, policy review, query result, or troubleshooting notes.
  • Connect the evidence to a portfolio pack, CV-ready skill statement, and mock-test weak-domain recovery action.

Evidence requirements

  • Correct scenario decision in mock exam
  • Written explanation of the key requirement or constraint
  • Hands-on lab evidence or troubleshooting proof
  • Portfolio pack with requirement, artifact, validation, risk note, and interview story
  • CV-ready skill statement linked to a score, artifact, or project result

digital-electronics-iot-foundations.intelligent-sensing-fusion-and-edge-inference.18 / 5% weight

Apply Intelligent sensing fusion and edge inference decisions to Electronics and Connected-Systems Learner scenarios

Mapped
Open mapped lesson

Mock questions

6

Lab evidence

6

Implementation proof

  • Define Intelligent sensing fusion and edge inference in plain language and explain the provider service family it belongs to.
  • Show how Intelligent sensing fusion and edge inference is implemented through a guided configuration, simulator, command, diagram, notebook, or case study.
  • Capture evidence with screenshots, command output, logs, metrics, topology state, policy review, query result, or troubleshooting notes.
  • Connect the evidence to a portfolio pack, CV-ready skill statement, and mock-test weak-domain recovery action.

Evidence requirements

  • Correct scenario decision in mock exam
  • Written explanation of the key requirement or constraint
  • Hands-on lab evidence or troubleshooting proof
  • Portfolio pack with requirement, artifact, validation, risk note, and interview story
  • CV-ready skill statement linked to a score, artifact, or project result

digital-electronics-iot-foundations.resilient-connected-systems-research-and-assurance.19 / 5% weight

Apply Resilient connected systems research and assurance decisions to Electronics and Connected-Systems Learner scenarios

Mapped
Open mapped lesson

Mock questions

6

Lab evidence

6

Implementation proof

  • Define Resilient connected systems research and assurance in plain language and explain the provider service family it belongs to.
  • Show how Resilient connected systems research and assurance is implemented through a guided configuration, simulator, command, diagram, notebook, or case study.
  • Capture evidence with screenshots, command output, logs, metrics, topology state, policy review, query result, or troubleshooting notes.
  • Connect the evidence to a portfolio pack, CV-ready skill statement, and mock-test weak-domain recovery action.

Evidence requirements

  • Correct scenario decision in mock exam
  • Written explanation of the key requirement or constraint
  • Hands-on lab evidence or troubleshooting proof
  • Portfolio pack with requirement, artifact, validation, risk note, and interview story
  • CV-ready skill statement linked to a score, artifact, or project result

digital-electronics-iot-foundations.postgraduate-electronics-and-connected-systems-dissertation.20 / 5% weight

Apply Postgraduate electronics and connected-systems dissertation decisions to Electronics and Connected-Systems Learner scenarios

Mapped
Open mapped lesson

Mock questions

6

Lab evidence

6

Implementation proof

  • Define Postgraduate electronics and connected-systems dissertation in plain language and explain the provider service family it belongs to.
  • Show how Postgraduate electronics and connected-systems dissertation is implemented through a guided configuration, simulator, command, diagram, notebook, or case study.
  • Capture evidence with screenshots, command output, logs, metrics, topology state, policy review, query result, or troubleshooting notes.
  • Connect the evidence to a portfolio pack, CV-ready skill statement, and mock-test weak-domain recovery action.

Evidence requirements

  • Correct scenario decision in mock exam
  • Written explanation of the key requirement or constraint
  • Hands-on lab evidence or troubleshooting proof
  • Portfolio pack with requirement, artifact, validation, risk note, and interview story
  • CV-ready skill statement linked to a score, artifact, or project result

Test readiness

Mock test by domain

Practice every domain in this track with exam-style questions, answer keys, and explanations.

Open mock test

Most in-demand certification materials

High-value certificates connected to this track.

CompTIA

CompTIA Security+

Very high
Needs reviewLast verified: Not verifiedNext review: Provider source review required

Entry security, cloud security fundamentals, and broad IT baseline roles.

CompTIA Security+ is mapped to platform lessons and labs, but still needs a dated official-source review.

  • Security terminology flashcards
  • Risk, identity, encryption, network, and incident-response checklist
  • Scenario questions covering least privilege, logging, malware, and secure operations

AWS

AWS Certified Cloud Practitioner (CLF-C02)

Very high
CurrentLast verified: 2026-06-24Next review: 2026-09-22

Beginners and career switchers who need cloud concepts, pricing, shared responsibility, global infrastructure, and core AWS service literacy.

CLF-C02 was verified against the official AWS certification page on 2026-06-24. Keep this source check on the 90-day review cadence.

AWS official-source stamp

Foundational / CLF-C02

AWS exam guide

Official domain weighting

Cloud Concepts24%
Security and Compliance30%
Cloud Technology and Services34%
Billing, Pricing, and Support12%

Lab focus

  • Service-family mapping
  • Shared responsibility
  • IAM baseline
  • Billing and support signals

Readiness gates

  • Foundation lessons complete
  • Core AWS service map complete
  • Billing/security quiz passed
  • Cleanup evidence captured
  • Cloud concepts, global infrastructure, billing, support, and shared-responsibility notes
  • AWS compute, storage, database, networking, security, monitoring, and pricing service map
  • Foundation scenario drills for service selection, cost awareness, and cloud adoption

PeopleCert / ITIL

ITIL Foundation Version 5

Very high
Needs reviewLast verified: Not verifiedNext review: Provider source review required

Support, operations, service desk, cloud operations, and team-lead learners who need service value, incident, change, SLA, and continual improvement fluency.

ITIL Foundation Version 5 is mapped to platform lessons and labs, but still needs a dated official-source review.

  • Service value system, value chain, guiding principles, and practice vocabulary map
  • Incident, problem, change, request, service level, knowledge, and continual improvement drills
  • Service review evidence pack with tickets, SLA metrics, improvement actions, and stakeholder communication

GitHub

GitHub Foundations

High
Needs reviewLast verified: Not verifiedNext review: Provider source review required

Software, DevOps, cloud, data, and AI learners proving repository workflow, collaboration, issues, pull requests, and portfolio evidence.

GitHub Foundations is mapped to platform lessons and labs, but still needs a dated official-source review.

  • Repository, commit, branch, pull request, issue, release, and project-board checklist
  • Code review, branch protection, README, and portfolio repository quality rubric
  • Workflow scenario drills for collaboration, review, release notes, and change history

Google Skillshop

Google Analytics Certification

High
Needs reviewLast verified: Not verifiedNext review: Provider source review required

Design, marketing, product, and business learners who need GA4 events, conversions, audiences, acquisition, and reporting fluency.

Google Analytics Certification is mapped to platform lessons and labs, but still needs a dated official-source review.

  • GA4 event, conversion, UTM, audience, report, and attribution vocabulary map
  • Measurement plan and dashboard checklist for websites, campaigns, and landing pages
  • Optimization scenario drills connecting traffic, conversion, content, and campaign decisions

Certification provider connections

Connect this learning path to the official exam provider.

CompTIA Certification

CompTIA Security+

Confirm with provider

Use CompTIA objectives as the checklist, then connect Security+, Network+, or Cloud+ progress to the learner dashboard.

Booking partner: Pearson VUE

  • Create or confirm the CompTIA account.
  • Review the official exam guide, ID policy, delivery options, and reschedule rules.
  • Add target exam date, booking status, renewal date, and certificate proof to the learner record.

AWS Certification

AWS Certified Cloud Practitioner (CLF-C02)

Confirm with provider

Use the AWS Certification account to review exam guides, book exams, manage score reports, and share verified badges.

Booking partner: Pearson VUE or PSI, depending on exam and region

  • Create or confirm the AWS Certification account.
  • Review the official exam guide, ID policy, delivery options, and reschedule rules.
  • Add target exam date, booking status, renewal date, and certificate proof to the learner record.

PeopleCert

ITIL Foundation Version 5

Confirm with provider

Connect ITIL and service-management readiness to the learner's exam booking, certificate proof, and renewal reminders.

Booking partner: PeopleCert

  • Create or confirm the PeopleCert account.
  • Review the official exam guide, ID policy, delivery options, and reschedule rules.
  • Add target exam date, booking status, renewal date, and certificate proof to the learner record.

GitHub Certifications

GitHub Foundations

Confirm with provider

Connect repository, Actions, security, and collaboration evidence to certification readiness and portfolio exports.

Booking partner: GitHub exam delivery partner

  • Create or confirm the GitHub account.
  • Review the official exam guide, ID policy, delivery options, and reschedule rules.
  • Add target exam date, booking status, renewal date, and certificate proof to the learner record.

Google Skillshop

Google Analytics Certification

Confirm with provider

Use Skillshop for Google product credentials and connect analytics or marketing evidence to learner progress.

Booking partner: Google Skillshop

  • Create or confirm the Google Skillshop profile.
  • Review the official exam guide, ID policy, delivery options, and reschedule rules.
  • Add target exam date, booking status, renewal date, and certificate proof to the learner record.

01 Match

Map each Daskerel track to the official provider, exam code, registration page, and verification route.

02 Prepare

Use provider objectives with Daskerel lessons, mock exams, labs, and evidence packs before booking.

03 Book

Send learners to the official scheduling partner while keeping target dates and next actions in the dashboard.

04 Verify

Capture certificate URL, badge, expiry, renewal plan, and portfolio proof after the learner passes.

Study plan

Start with units, assumptions, safe simulation boundaries, and measurement uncertainty.

Progress from circuit and logic models into emulated firmware and synthetic sensor telemetry.

Finish with a simulated connected system whose expected behavior, failures, and limitations are documented.

Hands-on labs

Run a virtual Ohm's law investigation and compare calculated and simulated values.

Build a SPICE-style low-voltage circuit simulation and document component tolerances.

Design and test a combinational-logic controller with a complete truth table.

Write firmware for a simulated microcontroller input and output sequence.

Publish synthetic sensor readings through an emulated telemetry pipeline and dashboard.

Tune a simulated feedback controller and produce a connected-device verification report.

Track learning assets

Templates and revision tools for this path.

Exam blueprint checklistDigital Electronics and IoT Foundations
Weekly study plannerDigital Electronics and IoT Foundations
Command and service cheat sheetDigital Electronics and IoT Foundations
Architecture pattern cardsDigital Electronics and IoT Foundations
Flashcard revision setDigital Electronics and IoT Foundations
Mock exam review sheetDigital Electronics and IoT Foundations
Lab evidence templateDigital Electronics and IoT Foundations
Interview story builderDigital Electronics and IoT Foundations
Portfolio project rubricDigital Electronics and IoT Foundations
Final readiness checklistDigital Electronics and IoT Foundations

Course rating

Rate this learning path

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Context: Digital Electronics and IoT Foundations

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Practice questions

What does a simulated circuit result prove?

It proves behavior under the model and assumptions; it does not replace physical measurement, safety testing, or competent sign-off.

Why must an IoT design authenticate devices?

Device identity prevents untrusted sources from sending accepted telemetry or receiving commands and enables revocation and audit.