Who checks whether the system has a door that should not be open? Starting from this question, look at how a role connects needs, execution, and feedback.

Understanding today's problem

Understand what information the system handles, who has access, and where things might go wrong. Identify risks within an authorized scope, and confirm the impact with colleagues on the business side.

Moving forward with the team

Turn risks into improvements the team can carry out: access control, protection of sensitive information, log review, and recovery procedures. Work with engineering to confirm whether the approach is effective.

Delivery and continuous improvement

Review the fixes and record the risks and decisions. When an incident happens, collaborate by following the process, and gather the lessons so the same problem is less likely to happen again.

Role names help us see how work is divided; everyday collaboration is what truly connects those divisions.

A day in the role

The work, step by step

01Identify risks

Within an authorized scope, learn what information the system handles and who has access.

02Drive improvements

Turn risks into actionable improvements such as access control, protection of sensitive information, and log review.

03Incident response

When an incident happens, collaborate, record, and recover by following the process.

04Retrospective

Review the fixes so the same problem is less likely to happen again.

Across the eras

Where this work appears in the timeline

  1. Connection Era

    1969–1993

    Incident responders, with the starting point being the Morris worm.

  2. Web

    1994–2000

    Engineers at antivirus and firewall vendors, and members of the early hacker community.

  3. Community & Search Era

    2001–2008

    Web security engineers and penetration testers, doing vulnerability scanning, MLPS assessments, and incident response.

  4. Mobile Era

    2009–2015

    Mobile application security and business security (anti-cheating, anti-fraud), with enterprise SRCs collaborating with white-hat hackers.

  5. Cloud & Intelligence Era

    2016–2022

    Expanding from offense and defense into compliance. New data security and privacy compliance roles appeared (the DPO under GDPR, the person in charge of personal information protection domestically), working on zero trust and supply chain security.

  6. Large Model Era

    2023–present

    AI security (prompt injection, jailbreaks, the model supply chain), content security and filing compliance, and labeling of generated content.

Occupation records

Recognition, mappings and market data

U.S. pay and outlook use the Information Security Analysts occupation. The global WEF indicator uses the title Security Management Specialists.

Occupation names and classifications

  1. China · Official occupation listing · A

    Information Security Tester

    Occupation listing · 2020.

    人力资源社会保障部办公厅等(中国政府网)
  2. China · Official trade listing · A

    Penetration Tester / Compliance Tester

    Trade listing · 2021.

    人力资源社会保障部办公厅等(中国政府网附件)
  3. China · Official occupation listing · A

    Cybersecurity Classified Protection Assessor

    Occupation listing · 2024.

    人力资源社会保障部(中国政府网转载)
  4. China · Occupation classification / mapping · A

    Data Security Engineering Technician

    Classification code · 2-02-38-12.

    中国就业网(人社部)

Pay, hiring and outlook indicators

  1. United States · Proxy occupation · A

    Information Security Analysts

    Median annual pay: US$129,180

    2025 median (P50) · USD/year

    O*NET OnLine(美国劳工部资助) · 15-1212.00 Information Security Analysts

  2. United States · Proxy occupation · A

    Information Security Analysts

    Projected growth / sample change: Much faster than average (7% or higher)

    2025–2035 projected growth band

    O*NET OnLine(美国劳工部资助) · 15-1212.00 Information Security Analysts

  3. Global · Proxy occupation · B

    Security Management Specialists

    List position / share of job postings: #5

    WEF Future of Jobs Report · 2025–2030 fastest net-growing roles list

    Report list position; no in-chart percentage is shown.

    World Economic Forum · The Future of Jobs Report 2025 (PDF)

Role record

History notes

These notes preserve the occupation names used by their sources. Era groupings and adjacent occupation names provide historical context; they do not mean those occupations are identical to this site’s role.

  1. 2020Official occupation listing

    信息安全测试员 · Information Security Tester

    The 2020 new-occupations release lists “信息安全测试员” (Information Security Tester). It is an occupation-name milestone in security, not a synonym for every security engineering role on this site.

  2. 2022Official occupation listing

    数据安全工程技术人员 · Data Security Engineering Technician

    The 2022 public notice lists “数据安全工程技术人员” (Data Security Engineering Technician), later included in the 2022 occupational classification dictionary. This is an official occupation-name milestone, not evidence that all security engineers began in that year.

  3. 2024Official occupation listing

    网络安全等级保护测评师 · Cybersecurity Classified Protection Assessor

    The 2024 new-occupations list from three government departments includes “网络安全等级保护测评师” (Cybersecurity Classified Protection Assessor). It is an official name for a specific security occupation, not a synonym for all security roles.

Related evidence · L1 · 30 papers

Contemporary research

These papers directly discuss responsibilities, skills, or tools relevant to the role. Topical relevance alone does not establish role history or replace employment and hiring data.

  1. L1arXiv:1608.046442016

    Towards Evaluating the Robustness of Neural Networks

    Evaluating neural-network robustness against adversarial examples.

    Abstract“vulnerable to adversarial examples”
  2. L1arXiv:1610.058202016

    Membership Inference Attacks against Machine Learning Models

    Membership-inference attacks and privacy auditing of training data.

    Title“Membership Inference Attacks”
  3. L1arXiv:1511.075282015

    The Limitations of Deep Learning in Adversarial Settings

    Threat analysis of adversarial examples against deep-learning systems.

    Title“adversarial settings”
  4. L1arXiv:1602.026972016

    Practical Black-Box Attacks against Machine Learning

    Black-box attacks against machine-learning models.

    Title“Practical Black-Box Attacks”
  5. L1arXiv:2012.078052020

    Extracting Training Data from Large Language Models

    Training-data extraction risks for large language models.

    Title“Extracting Training Data”
  6. L1arXiv:cs/06020072006

    Fuzzy Extractors: How to Generate Strong Keys from Biometrics and Other Noisy Data

    Biometric key generation and secure verification.

    Title“Strong Keys from Biometrics”
  7. L1arXiv:1511.045082015

    Distillation as a Defense to Adversarial Perturbations against Deep Neural Networks

    Defense mechanisms against adversarial perturbations.

    Title“Defense to Adversarial Perturbations”
  8. L1arXiv:1807.004592018

    How To Backdoor Federated Learning

    Backdoor threats in federated learning.

    Title“Backdoor Federated Learning”
  9. L1arXiv:1801.012032018

    Spectre Attacks: Exploiting Speculative Execution

    Spectre side-channel attacks and information disclosure.

    Title“Spectre Attacks”
  10. L1arXiv:1708.067332017

    BadNets: Identifying Vulnerabilities in the Machine Learning Model Supply Chain

    Model-supply-chain vulnerabilities and backdoor risks.

    Title“Machine Learning Model Supply Chain”
  11. L1arXiv:1712.055262017

    Targeted Backdoor Attacks on Deep Learning Systems Using Data Poisoning

    Data-poisoning and backdoor threats to deep-learning systems.

    Title“Data Poisoning”
  12. L1arXiv:1708.061312017

    Evasion Attacks against Machine Learning at Test Time

    Test-time evasion attacks and security evaluation.

    Title“Evasion Attacks against Machine Learning”
  13. L1arXiv:1407.69812014

    RAPPOR: Randomized Aggregatable Privacy-Preserving Ordinal Response

    Differential-privacy techniques for collecting client statistics.

    Title“Privacy-Preserving Ordinal Response”
  14. L1arXiv:2106.131232021

    The Queen's Guard: A Secure Enforcement of Fine-grained Access Control In Distributed Data Analytics Platforms

    Fine-grained access control for distributed data-analytics platforms.

    Title“Fine-grained Access Control”
  15. L1arXiv:1609.029432016

    Stealing Machine Learning Models via Prediction APIs

    Model-theft risks for public prediction APIs.

    Title“Stealing Machine Learning Models via Prediction APIs”
  16. L1arXiv:2302.121732023

    Not what you've signed up for: Compromising Real-World LLM-Integrated Applications with Indirect Prompt Injection

    Indirect prompt-injection risks in LLM-integrated applications.

    Title“Indirect Prompt Injection”
  17. L1arXiv:1605.072772016

    Transferability in Machine Learning: from Phenomena to Black-Box Attacks using Adversarial Samples

    Adversarial-sample transferability and black-box attacks.

    Title“Black-Box Attacks using Adversarial Samples”
  18. L1arXiv:1909.129622019

    Celeb-DF: A Large-scale Challenging Dataset for DeepFake Forensics

    Data and methods for deepfake forensics and detection.

    Title“DeepFake Forensics”
  19. L1arXiv:1805.040492018

    Exploiting Unintended Feature Leakage in Collaborative Learning

    Unintended information leakage in collaborative learning.

    Title“Feature Leakage in Collaborative Learning”
  20. L1arXiv:1811.007012018

    Towards the Development of Realistic Botnet Dataset in the Internet of Things for Network Forensic Analytics: Bot-IoT Dataset

    IoT intrusion detection and network forensics.

    Title“Network Forensic Analytics”
  21. L1arXiv:1712.075572017

    Differentially Private Federated Learning: A Client Level Perspective

    Client-level differential privacy for federated learning.

    Title“Differentially Private Federated Learning”
  22. L1arXiv:1911.118152019

    Local Model Poisoning Attacks to Byzantine-Robust Federated Learning

    Local model-poisoning attacks in federated learning.

    Title“Local Model Poisoning Attacks”
  23. L1arXiv:1912.038172019

    Machine Unlearning

    Data deletion and privacy-leakage risks.

    Title“Machine Unlearning”
  24. L1arXiv:1702.074762017

    Renyi Differential Privacy

    Analysis of differential-privacy guarantees.

    Title“Renyi Differential Privacy”
  25. L1arXiv:1702.074642017

    Deep Models Under the GAN: Information Leakage from Collaborative Deep Learning

    Information leakage in collaborative deep learning.

    Title“Information Leakage from Collaborative Deep Learning”
  26. L1arXiv:1802.069932018

    A Survey on the Security of Blockchain Systems

    Blockchain security threats and mitigation approaches.

    Title“Security of Blockchain Systems”
  27. L1arXiv:1805.034092018

    N-BaIoT: Network-based Detection of IoT Botnet Attacks Using Deep Autoencoders

    Anomaly detection for IoT botnet attacks.

    Title“Detection of IoT Botnet Attacks”
  28. L1arXiv:1704.035782017

    A Survey on Homomorphic Encryption Schemes: Theory and Implementation

    Homomorphic encryption for protecting sensitive cloud data.

    Title“Homomorphic Encryption Schemes”
  29. L1arXiv:1805.121852018

    Fine-Pruning: Defending Against Backdooring Attacks on Deep Neural Networks

    Defenses against backdoor attacks on neural networks.

    Title“Defending Against Backdooring Attacks”
  30. L1arXiv:cs/00100192000

    The Random Oracle Methodology, Revisited

    Security analysis of cryptographic schemes.

    Title“Random Oracle Methodology”