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Quantum Cryptography Jobs in Oregon (NOW HIRING)

Quantum Computing Cryptography Engineer

OR · On-site +1

$82K - $109K/yr

The Quantum Computing/Cryptography Engineer will provide specialized engineering and technical expertise in quantum computing, cryptography, post-quantum cryptography (PQC), and cryptographic ...

This senior, hands-on role will make complex topics-including AI, post-quantum cryptography, PKI, digital identity and cybersecurity-clear and compelling for business and technical audiences. The ...

Cyber Data Protection/PKI Manager

Portland, OR · On-site

$117K - $159K/yr

Familiarity with crypto-agility strategies and post-quantum cryptography readiness * Knowledge of adjacent domains such as IAM, PAM, secrets management, zero trust, and machine identity management

Senior Solutions Engineer

OR · On-site +1

$55.25 - $71.25/hr

As part of the Solutions Engineering team, you will be at the forefront of emerging trends like post-quantum cryptography, IoT security, zero trust architecture, and digital identity and automation.

Sr. Director Technical Product Marketing

OR · On-site +1

$166K - $192K/yr

Connect our capabilities directly to enterprise frameworks like Zero Trust, Post-Quantum transition ... IAM), Cryptography, or Cloud Infrastructure Security. * Protocol-Level Knowledge: Foundational ...

Quantum Cryptography information

See Oregon salary details

$26.9K

$125.7K

$202.5K

How much do quantum cryptography jobs pay per year?

As of Sep 14, 2026, the average yearly pay for quantum cryptography in Oregon is $125,741.00, according to ZipRecruiter salary data. Most workers in this role earn between $99,242.00 and $155,595.00 per year, depending on experience, location, and employer.

What is quantum cryptography?

A Quantum Cryptography job involves researching, developing, and implementing cryptographic methods that leverage quantum mechanics to secure data and communications. Professionals in this field work on quantum key distribution (QKD), post-quantum cryptography, and related security protocols. They may be involved in theoretical research, hardware development, or security applications. These roles are typically found in academia, government agencies, and tech companies focusing on cybersecurity and quantum computing.

What are the key skills and qualifications needed to thrive in quantum cryptography?

To excel in Quantum Cryptography, professionals need an advanced understanding of quantum mechanics, mathematics, and cryptographic protocols, often supported by a graduate degree in physics, computer science, or a related field. Familiarity with quantum programming languages (such as Q# or Qiskit), standard cryptographic libraries, and potentially certifications in cybersecurity are valuable assets. Strong analytical thinking, attention to detail, and effective collaboration skills are essential soft skills for success. These competencies are crucial for designing secure quantum communication systems and solving complex security challenges in multidisciplinary teams.

What are some common challenges faced by professionals working in quantum cryptography?

Professionals in quantum cryptography often encounter challenges such as staying updated with rapidly evolving research, translating theoretical quantum models into practical cryptographic solutions, and managing the limitations of current quantum hardware. The role typically requires collaboration with physicists, engineers, and cybersecurity experts to address technical hurdles and ensure robust system implementations. Additionally, navigating ambiguous or emerging standards in quantum-secure communications can be demanding. However, overcoming these challenges offers the opportunity to stay at the forefront of cryptographic innovation and play a key role in shaping future security technologies.

How to become a quantum cryptography professional?

To become a quantum cryptography professional, one typically needs a strong background in physics, computer science, or electrical engineering, often requiring a bachelor's degree at minimum and advanced degrees for research roles. Gaining expertise in quantum mechanics, cryptography, and programming languages like Python or C++ is essential, along with experience using quantum computing tools and staying updated on emerging technologies through certifications or specialized training.

Is quantum cryptography the future?

Quantum cryptography is considered a promising technology for secure communication, leveraging principles of quantum mechanics such as quantum key distribution. As a field, it is rapidly evolving with increasing research and development efforts, suggesting it will play a significant role in future cybersecurity infrastructure. Professionals in this area need knowledge of quantum physics, cryptography, and programming tools like quantum simulators.

What are the most commonly searched types of Quantum Cryptography jobs in Oregon?

The most popular types of Quantum Cryptography jobs in Oregon are:

What are popular job titles related to Quantum Cryptography jobs in Oregon?

For Quantum Cryptography jobs in Oregon, the most frequently searched job titles are:

What job categories do people searching Quantum Cryptography jobs in Oregon look for?

The top searched job categories for Quantum Cryptography jobs in Oregon are:

Infographic showing various Quantum Cryptography job openings in Oregon as of September 2026, with employment types broken down into 100% Full Time. Highlights an 50% In-person, and 50% Remote job distribution, with an average salary of $125,741 per year, or $60.5 per hour.

Quantum Computing Cryptography Engineer

OR • On-site, Remote

$82K - $109K/yr

Full-time

Posted 10 days ago


Job description

Team (Project) Introduction

We are recruiting for a range of cybersecurity opportunities supporting federal customers, focused on strengthening enterprise security architecture, systems engineering, and the secure implementation of technologies across the environment.

The work involves applying established cybersecurity standards, guidelines, and frameworks to help translate organizational and business requirements into secure, scalable technical solutions. Team members may contribute to security architecture and engineering efforts, implementation guidance, technical analysis, and the development of repeatable approaches that support the consistent deployment and operation of secure technologies across complex enterprise environments.

Systems security engineering is an important component of this work, with an emphasis on incorporating security and stakeholder protection requirements throughout the system development life cycle, from concept and design through development, production, sustainment, and decommissioning. The team will apply established systems engineering and cybersecurity principles to help protect systems, applications, data, and supporting technologies.

Ultimately, this work supports the broader mission to strengthen its cybersecurity posture, reduce organizational risk, and protect critical systems and information from evolving cyber threats, including external adversaries and insider threats.

9th Way Insignia is looking for an Engineer, 3, Quantum Computing/Cryptography Engineer to join this team.
Professional Level Information:
An Engineer, 3 typically plans and directs research or development work on complex projects, along with engaging various parties in design and development. Costs and recommendations of new components may also involve part of the job scope. Performs multiple engineering-related tasks in various assignments within the project and firm. An Engineer, 3 oversees the design, development, implementation, and analysis of technical products and systems.  An Engineer, 3 has broad knowledge of engineering procedures and assists in the resolution of complex problems.  An Engineer, 3 has strong technical skills and background, a knack for learning new technologies, and a blend of good problem-solving and innovation needed to resolve a wide variety of technical production challenges.

Functional Job (LCAT) Information:
The Quantum Computing/Cryptography Engineer will provide specialized engineering and technical expertise in quantum computing, cryptography, post-quantum cryptography (PQC), and cryptographic modernization in support of the VA program. The engineer will assess existing cryptographic technologies, evaluate quantum-related cybersecurity risks, and develop strategies for transitioning VA systems and applications to secure, quantum-resistant cryptographic standards.


Responsibilities:

  • Provide technical expertise in quantum computing, quantum information science, cryptography, and post-quantum cryptography to support VA cybersecurity architecture and engineering initiatives.
  • Analyze the potential cybersecurity impact of quantum computing technologies on existing VA systems, applications, infrastructure, data protections, and cryptographic implementations.
  • Apply knowledge of quantum mechanics, quantum information theory, and quantum algorithms, including algorithms such as Shor's and Grover's algorithms, to evaluate current and emerging cryptographic risks.
  • Assess existing cryptographic implementations, protocols, algorithms, certificates, keys, and supporting technologies to identify systems that may be vulnerable to current or future quantum-enabled threats.
  • Develop and maintain an enterprise cryptographic inventory identifying cryptographic algorithms, protocols, implementations, dependencies, technologies, and systems across the VA environment.
  • Analyze the cryptographic inventory and establish risk-based migration priorities based on mission criticality, data sensitivity, cryptographic exposure, technology dependencies, and emerging quantum threats.
  • Develop and maintain Cryptographic Inventory and Migration Plans defining strategies, timelines, sequencing, and priorities for transitioning VA systems to approved cryptographic standards, including post-quantum cryptography where applicable.
  • Develop and recommend Post-Quantum Cryptography migration strategies that enable the VA to transition from existing cryptographic approaches to quantum-resistant algorithms in a controlled and secure manner.
  • Provide technical guidance for cryptographic modernization aligned with applicable NIST post-quantum cryptography standards, including FIPS 203, FIPS 204, and FIPS 205.
  • Evaluate and recommend quantum-resistant cryptographic algorithms and technologies for use within enterprise systems, applications, networks, cloud environments, data protection solutions, and identity infrastructures.
  • Provide subject matter expertise in traditional cryptographic protocols and technologies, including RSA, AES, public-key cryptography, Public Key Infrastructure (PKI), encryption, digital signatures, key management, and related security mechanisms.
  • Evaluate interoperability, compatibility, implementation complexity, performance, security, and operational impacts associated with replacing or upgrading legacy cryptographic technologies.
  • Identify cryptographic dependencies and potential migration challenges across applications, infrastructure, network technologies, cloud platforms, identity systems, security tools, and enterprise services.
  • Support the development of crypto-agile architectures and engineering approaches that enable cryptographic algorithms and technologies to be replaced or upgraded as standards and threats evolve.
  • Perform technical analysis, prototyping, modeling, and testing using classical and quantum simulation tools to evaluate quantum algorithms, cryptographic techniques, and potential security impacts.
  • Develop, implement, and test cryptographic algorithms and related engineering solutions using programming languages such as Python, C++, and Java.
  • Utilize quantum development languages, frameworks, and platforms such as Qiskit, Cirq, Quipper, and the Microsoft Quantum Development Kit to support research, simulation, testing, and technical analysis.
  • Conduct specialized security posture assessments for Post-Quantum Cryptography and other emerging technologies, documenting risks, vulnerabilities, technology implications, and recommended mitigation strategies.
  • Support security architecture reviews and engineering assessments to identify cryptographic weaknesses, architectural gaps, security risks, attack paths, and residual risk associated with existing and proposed systems.
  • Develop technical recommendations for mitigating cryptographic vulnerabilities and reducing exposure to "harvest now, decrypt later" and other quantum-related cybersecurity risks where supported by applicable VA risk assessments and modernization activities.
  • Support development of secure solution architectures, security patterns, reference architectures, and engineering guidance incorporating modern and post-quantum cryptographic protections.
  • Ensure cryptographic solutions and modernization recommendations align with applicable Federal security standards, VA security requirements, NIST guidance, and enterprise cybersecurity architecture.
  • Provide technical input into VA security policies, engineering standards, cryptographic guidance, modernization plans, and governance documentation.
  • Participate in technical design reviews, architecture reviews, modernization initiatives, pilots, engineering working groups, and governance forums requiring cryptography or quantum computing subject matter expertise.
  • Collaborate with cybersecurity architects, security engineers, application teams, cloud engineers, DevSecOps personnel, network engineers, identity teams, program managers, and Government stakeholders to coordinate cryptographic modernization and PQC migration activities.
  • Communicate complex quantum computing and cryptographic risks in clear business and mission terms to technical teams, program leadership, and non-technical executives.
  • Develop technical assessments, white papers, implementation recommendations, risk analyses, briefings, and presentations addressing quantum risk, cryptographic posture, migration readiness, and modernization priorities.
  • Track emerging quantum-computing capabilities, cryptographic technologies, and evolving standards to identify potential impacts to the VA enterprise and recommend appropriate engineering or modernization actions.
  • Support project and lifecycle management activities associated with cryptographic modernization, including requirements development, configuration management, risk tracking, implementation planning, and transition sequencing.
  • Core Role Focus
  • May require occasional on-site visits

Requirements:

  • Minimum of 10 years IT experience of which at least 5 years are of Quantum Computing and Cryptography experience at a large corporation or Government agency similar in size/scope to GSA, IRS, DoD or VA. 
  • A Master's degree in a related IT field may substitute for up to 2 years of the required experience 
  • Expertise in quantum mechanics, quantum algorithms (e.g., Shor's algorithm, Grover's algorithm), and quantum information theory. 
  • Expertise in quantum programming languages and frameworks such as Qiskit (IBM), Cirq (Google), Quipper, and Microsoft Quantum Development Kit  
  • Expertise in cryptographic protocols (e.g., RSA, AES) and principles of public-key infrastructure (PKI). 
  • Expertise in post-quantum cryptography and quantum-resistant algorithms. 
  • Expertise in existing cryptographic standards and frameworks (e.g., NIST, ISO/IEC 19790). 
  • Proficiency in programming languages such as Python, C++, and Java for implementing and testing cryptographic algorithms. 
  • Expertise with classical and quantum simulation tools. 
  • Expertise working with and advising on quantum-resistant algorithm migration plans and post-quantum cryptography (PQC) implementation strategies. Expertise assessing organizational cryptographic inventory and identifying migration priorities. Expertise collaborating with cross-functional teams to communicate quantum risk to non-technical leadership. Experience providing policy and guidance inputs for cryptographic modernization aligned with NIST PQC standards (FIPS 203, 204, 205). 
  • Expertise in project management or working in a project-oriented environment, with an understanding of how configuration management fits into the overall project lifecycle within a large corporation and Government agency similar in size/scope to GSA, IRS, DoD or VA. 

Preferred/Desired:

  • Bachelor's degree in Business Administration, Business Management, Cybersecurity, Computer Science, Information Systems, Information Assurance, Information Security, Information Resource Management, or related fields. 
  • CASP+ (SecurityX), CCISO, CISA, CISM, CISSP, CISSP-ISSAP, CISSP-ISSEP, GCED, GCIH, GSLC, CCNP Security