Marine Architect Career Path Guide

Marine architects are specialized engineers and designers who create, develop, and oversee the construction and maintenance of ships, boats, and other marine vessels. They balance aesthetics, safety, and performance while complying with regulatory standards to ensure that vessels are seaworthy, efficient, and environmentally sustainable.

6%

growth rate

$92,500

median salary

remote-friendly

📈 Market Demand

Low
High
High

Demand for marine architects remains strong due to expanding global maritime trade, growing recreational boating markets, and increased focus on sustainable marine technologies. The need for designing energy-efficient and regulatory-compliant vessels contributes to steady growth.

🇺🇸 Annual Salary (US, USD)

65,000—120,000
Median: $92,500
Entry-Level
$73,250
Mid-Level
$92,500
Senior-Level
$111,750

Top 10% of earners in this field can expect salaries starting from $120,000+ per year, especially with specialized skills in high-demand areas.

Core Functions of the Marine Architect Role

Marine architects combine engineering principles with creativity to design watercraft that are both functional and safe. Their role extends beyond the visual design; it encompasses hydrodynamics, structural integrity, and material selection to optimize performance under various sea conditions. These professionals work closely with naval engineers, shipbuilders, and regulatory agencies to bring vessels to life — from recreational boats to large commercial ships.

Working in marine architecture requires a deep understanding of marine environments and the challenges posed by saltwater corrosion, wave forces, and stability issues. Designs must address these realities while also considering economic viability and environmental impact, such as fuel efficiency and emissions. Modern marine architects increasingly integrate advanced computational modeling and simulation to predict how designs will behave in real-world conditions.

Projects can range in scale and complexity, including luxury yachts, cargo ships, passenger ferries, offshore platforms, and even specialized research vessels. The job calls for interdisciplinary collaboration, liaising with electrical, mechanical, and structural engineers to ensure all components and systems integrate seamlessly. Marine architects routinely update knowledge on maritime regulations set by international bodies like the IMO (International Maritime Organization).

Beyond initial design, marine architects often contribute to the refitting and retrofitting of existing vessels to improve performance or comply with newer standards. This aspect of the job demands strong problem-solving skills and the ability to innovate under constraints. The profession offers a dynamic career path that combines technical acumen, creativity, and a commitment to maritime safety and innovation.

Key Responsibilities

  • Design and develop hull structures and vessel layouts to optimize hydrodynamic performance and stability.
  • Conduct feasibility studies and create detailed design plans, including 2D schematics and 3D modeling.
  • Collaborate with naval engineers, structural engineers, and shipbuilders during the design and construction phases.
  • Analyze material properties and select appropriate construction materials to ensure durability and compliance with safety standards.
  • Adhere to maritime safety regulations and classification society rules such as those from ABS, Lloyd’s Register, or DNV GL.
  • Oversee the installation and integration of machinery and equipment, ensuring alignment with design specifications.
  • Conduct simulations and perform stress and stability analyses to validate vessel performance under various conditions.
  • Review and approve shipyard construction processes to ensure quality assurance and adherence to design.
  • Evaluate environmental impacts and incorporate sustainable design practices to reduce emissions and waste.
  • Prepare technical documentation, including blueprints, cost estimates, and regulatory filings.
  • Modify and retrofit vessels to enhance operational efficiency or meet new regulatory requirements.
  • Provide expert consultation during vessel inspections, trials, and commissioning.
  • Stay updated with emerging marine technologies and material innovations.
  • Mentor junior architects and engineering staff and support ongoing professional development.
  • Engage with clients to understand specific project requirements and ship functionalities.

Work Setting

Marine architects typically divide their time between office environments and shipyards or construction sites. In the office, they utilize CAD software and modeling tools to create detailed designs and collaborate via virtual and in-person meetings. Visiting shipyards or docks requires them to supervise fabrication, inspect assemblies, and liaise with construction teams. The job can involve exposure to industrial sites, sometimes in remote or coastal locations. Deadlines and budgets drive a fast-paced, often collaborative atmosphere. While much work is conducted at desks, marine architects occasionally face pressure during trials or inspections when vessels must meet high standards. Frequent travel may be required for project supervision, regulatory inspections, or client consultations, demanding adaptability and strong communication skills.

Tech Stack

  • AutoCAD
  • Rhinoceros (Rhino 3D)
  • NAPA Ship Design Software
  • Maxsurf
  • SolidWorks
  • ANSYS Fluent (CFD simulation)
  • MATLAB
  • ShipConstructor
  • AVEVA Marine
  • MSC Nastran (Structural analysis)
  • HyperWorks
  • Navisworks
  • Microsoft Project
  • Bluebeam Revu
  • Excel (engineering calculations)
  • Primavera P6
  • Bentley Systems software
  • HydroSTAR
  • Ocean Data Tools
  • Python (for scripting and automation)

Skills and Qualifications

Education Level

A bachelor's degree in naval architecture, marine engineering, or a closely related field serves as the foundational educational requirement for marine architects. This includes coursework in fluid dynamics, structural mechanics, materials science, and computer-aided design. Many marine architects pursue advanced degrees or specialized certifications to deepen their expertise, particularly in hydrodynamics or marine systems engineering. Strong math and physics skills are crucial, as is familiarity with software tools used for design, simulation, and project management. Given the complexity of maritime regulations and environmental standards, continuous education on changing policies is vital to remain compliant and innovative. Internships and cooperative education programs during undergraduate studies often provide essential hands-on experience. Professional licensure or certification, such as registration as a Chartered Engineer or certification from a maritime institute, significantly enhances employability and career advancement. Employers highly value candidates who demonstrate practical knowledge of shipyard operations, teamwork, and communication skills, alongside technical expertise.

Tech Skills

  • Hull design and hydrodynamic analysis
  • Structural analysis and finite element methods
  • CAD modeling and drafting
  • Computer fluid dynamics (CFD)
  • Ship stability and weight estimation
  • Regulatory compliance understanding (IMO, ABS, DNV GL)
  • Material selection for marine environments
  • 3D modeling software operation (Rhino, SolidWorks)
  • Marine systems integration
  • Project management software (MS Project, Primavera)
  • Statistical data analysis (MATLAB, Excel)
  • Cost estimating and budgeting
  • Vessel performance simulation
  • Risk assessment and safety engineering
  • Proficiency with programming/scripting (Python, MATLAB)

Soft Abilities

  • Problem-solving
  • Attention to detail
  • Strong communication
  • Team collaboration
  • Time management
  • Adaptability
  • Creativity and innovation
  • Critical thinking
  • Project coordination
  • Client relationship management

Path to Marine Architect

The path to becoming a marine architect generally begins with obtaining a bachelor's degree in naval architecture, marine engineering, or a related engineering discipline. Many universities worldwide offer specialized programs that combine engineering principles with marine science, providing the theoretical and practical foundation needed for the role.

Seeking internships or cooperative education positions at shipyards, design firms, or maritime research institutes during your studies will provide invaluable real-world experience. This practical exposure allows you to observe vessel construction processes, use industry-standard tools, and develop professional contacts.

Upon graduation, pursuing entry-level roles as a junior marine architect or engineering assistant is essential. These positions help you apply theoretical knowledge on actual projects while learning industry-specific procedures and regulations. Gaining exposure to hydrodynamics, structural analysis, CAD software, and project management during this stage builds a solid skill set.

Aspiring professionals are encouraged to continue training by attending workshops, certification courses, and advanced degree programs focusing on marine systems or offshore engineering. Certifications through professional organizations also enhance credibility and career prospects.

Building a portfolio of completed projects — whether academic, internship, or professional — demonstrates design capability and problem-solving skills to employers. Strong communication and networking skills aid substantially in career development and can lead to roles with increasing responsibility.

Eventually, gaining licensure or registration with recognized industry bodies becomes important for senior positions, especially if you intend to take on the ultimate responsibility for marine design projects. Lifelong learning remains a priority due to evolving technologies, regulations, and environmental standards.

Required Education

A formal education grounded in engineering and maritime disciplines is paramount to becoming a marine architect. Undergraduate programs typically include subjects such as fluid mechanics, structural mechanics, materials science, ship design, marine systems, and computer-aided design (CAD). Curricula blend classroom instruction with practical labs and often capstone design projects related to ship construction.

Leading universities worldwide offer degrees specifically in Naval Architecture or Marine Engineering. Institutions tend to emphasize project-based learning and partnerships with the maritime industry, enabling students to interact with experts and gain hands-on experience with shipbuilding technologies and software tools.

Postgraduate programs in specialized fields such as offshore structures, marine hydrodynamics, or environmental engineering allow further specialization. Marine architects who pursue these degrees gain access to advanced analytical techniques, simulations, and research methodologies.

Professional certifications and licensure vary by country but generally require passing rigorous examinations and demonstrating experience in marine design and management. Examples include Chartered Engineer status, Professional Engineer (PE) licensure in the U.S., and certifications from maritime authorities such as the Institute of Marine Engineering, Science and Technology (IMarEST).

Beyond formal education, continuous professional development is crucial. Training workshops, safety seminars, and software proficiency courses help maintain and update skills. Familiarity with the latest regulatory codes, such as IMO conventions, and emerging materials and technologies in marine construction, contributes to career advancement.

Practical training in shipyards, drydocks, and offshore facilities supplements classroom learning by immersing students in the realities of marine vessel construction and maintenance. This blend of theoretical and applied education forms the backbone of successful marine architects.

Career Path Tiers

Junior Marine Architect

Experience: 0-3 years

At this entry level, individuals focus on supporting senior architects and engineers by performing base-level design tasks, drafting, and preliminary analyses. Responsibilities include assisting with CAD modeling, preparing documentation, and learning to apply hydrodynamic and structural concepts under supervision. A junior marine architect gains hands-on experience with software tools and maritime regulations while gradually understanding project workflows and safety standards. Close mentoring is typical to help cultivate technical proficiency and problem-solving skills.

Marine Architect

Experience: 3-7 years

Professionals at this stage lead specific design elements or smaller projects, coordinate between design and engineering teams, and make informed decisions about materials and structural integrity. They conduct stability and stress analyses, contribute to compliance verification, and participate actively in shipyard consultations. A marine architect at this level is expected to manage client communications, mentor juniors, and demonstrate growing autonomy in delivering design objectives while balancing performance, cost, and regulatory constraints.

Senior Marine Architect

Experience: 7-15 years

Seasoned marine architects take on complex, large-scale projects and lead entire design teams. They are responsible for final design approval, technical innovation, and resolving challenging engineering problems. Senior roles require deep expertise in naval architecture principles and regulatory mastery, as well as strong leadership and project management capabilities. These professionals engage with clients and stakeholders at a strategic level, influence design policies, and often spearhead research and development initiatives in marine technology.

Lead Marine Architect / Principal

Experience: 15+ years

At the pinnacle of the profession, lead marine architects direct multi-disciplinary teams on flagship projects and shape comprehensive design strategies. They are accountable for organizational leadership, business development, and innovation integration. This role demands a blend of visionary engineering insight, advanced technical skills, and exemplary communication to drive company growth and maintain competitive advantage in the maritime industry.

Global Outlook

Marine architecture enjoys diverse global opportunities shaped by coastal economies, shipbuilding hubs, and maritime trade routes. Prominent employment regions include North America, Northern and Western Europe, and East Asia, notably Japan, South Korea, and China, where robust shipbuilding industries create demand for specialized marine design expertise. The Middle East and Southeast Asia are accelerating investments in offshore infrastructure and luxury yacht markets, expanding opportunities.

Developed economies value marine architects not only for traditional ship manufacturing but also for innovative green ship design and offshore renewable energy platforms. Countries with strong maritime regulations and environmental standards typically require highly skilled professionals who can navigate complex compliance landscapes.

Emerging markets focusing on port development, ferry services, and fishing fleets offer entry points for marine architects eager to gain international exposure. Collaboration with international classification societies and global shipping companies further requires a cosmopolitan skill set and adaptability to cross-cultural work environments.

Ongoing global trends, including environmental stewardship and advancements in autonomous vessels, are generating novel job roles and interdisciplinary engagements. Marine architects positioned to work across borders can benefit from varied project portfolios and accelerate career growth in this evolving global field.

Job Market Today

Role Challenges

The marine architecture field faces several pressing challenges today. Stricter environmental regulations drive the need for sustainable and energy-efficient vessel designs, raising complexity and cost. The global supply chain disruptions have impacted shipbuilding schedules and access to advanced materials, creating pressure on design adaptability. Rapid technological changes require continuous upskilling to master simulation tools, alternative fuels, and automation systems, which can be resource-intensive. Competition is intensifying with integration of disciplines such as offshore engineering and underwater robotics. Additionally, geopolitical shifts affect maritime trade routes and project financing, injecting uncertainty in some sectors. These factors demand resilience and innovation from marine architects to stay relevant and deliver projects within budget and regulatory frameworks.

Growth Paths

The maritime industry's drive towards decarbonization and smart shipping is opening exciting growth avenues for marine architects. Electric propulsion, hydrogen fuel systems, and hybrid powertrain integration call for advanced multidisciplinary designs. Offshore renewable energy projects, including wind and wave energy platforms, expand the definition of marine architecture beyond vessels. The increase in autonomous and remotely operated vessels offers new frontiers for innovation. Expansion in cruise ship and luxury yacht sectors also sustains steady demand. Industry digitization and simulation technologies elevate design efficiency and predictive capabilities, creating niches for specialists in these tools. Marine architects embracing these trends can lead in pioneering solutions that enhance safety, sustainability, and operational excellence.

Industry Trends

Sustainability is reshaping marine architecture through energy-efficient hull forms, lightweight composite materials, and cleaner propulsion technologies. Digitization and integrated digital twins provide comprehensive virtual platforms for performance testing, enabling rapid iterations and cost-cutting during design phases. Collaborative software ecosystems foster real-time coordination across global teams. Advances in additive manufacturing hold promise for custom and rapid ship components. Big data analytics and IoT integration enhance ship monitoring and maintenance, influencing design decisions. Hybrid propulsion systems combining batteries and traditional fuels are becoming mainstream. Furthermore, modular construction and flexible ship designs accommodate changing mission profiles and retrofit opportunities. These trends converge to transform vessel design into a dynamic, hyper-connected discipline.

A Day in the Life

Morning (9:00 AM - 12:00 PM)

Focus: Conceptualization & Modeling
  • Review project briefs or client requirements
  • Sketch initial concepts and layouts
  • Develop 3D CAD models of hull and superstructure
  • Perform initial hydrodynamic calculations
  • Conduct team meetings to align on design goals

Afternoon (12:00 PM - 3:00 PM)

Focus: Analysis & Collaboration
  • Run simulations for stability and structural strength
  • Analyze results for compliance with safety standards
  • Coordinate with naval engineers and equipment suppliers
  • Adjust designs based on feedback and constraints
  • Prepare technical reports and documentation

Late Afternoon (3:00 PM - 6:00 PM)

Focus: Site Visits & Client Interaction
  • Visit shipyards or construction sites for inspections
  • Supervise assembly and compliance processes
  • Meet with clients to present design progress
  • Incorporate client feedback and regulatory changes
  • Plan next steps and update project schedules

Work-Life Balance & Stress

Stress Level: Moderate

Balance Rating: Good

While marine architects face deadlines and intricate problem-solving demands, many enjoy a balanced workflow with a mix of office and fieldwork. Project schedules can create peak stress periods, especially during critical design reviews or sea trials. Collaboration and clear communication with multidisciplinary teams help mitigate pressure. The profession often offers reasonable working hours compared to purely on-site engineering roles, although occasional overtime may be needed. Long-term job satisfaction is enhanced by the dynamic, impactful nature of the work and opportunities for international travel.

Skill Map

This map outlines the core competencies and areas for growth in this profession, showing how foundational skills lead to specialized expertise.

Foundational Skills

Core competencies essential to all marine architects ensuring technical reliability and design accuracy.

  • Hydrodynamics and Fluid Mechanics
  • Structural Mechanics and Stress Analysis
  • Ship Stability and Load Calculations
  • Basic CAD Modeling
  • Maritime Safety and Regulatory Knowledge

Specialization Paths

Advanced areas where marine architects may develop deeper expertise to lead innovation.

  • Computational Fluid Dynamics (CFD)
  • Finite Element Analysis (FEA)
  • Sustainability and Green Ship Design
  • Offshore Platform Design
  • Autonomous Vessel Design

Professional & Software Skills

Tools and interpersonal abilities critical to successful project execution and collaboration.

  • Proficiency in NAPA, Rhinoceros, SolidWorks
  • Project Management (MS Project, Primavera)
  • Technical Communication and Documentation
  • Teamwork and Cross-disciplinary Coordination
  • Problem Solving and Critical Thinking

Pros & Cons for Marine Architect

Pros

  • Opportunities to work on innovative and impactful engineering projects that combine creativity and technical skill.
  • Strong global demand with chances to travel and work on international projects.
  • Diverse career paths including ship design, offshore structures, and research vessels.
  • Integrates interdisciplinary knowledge, allowing continuous learning and skill development.
  • Potential for high earning and senior leadership roles in marine engineering firms.
  • Contribution to sustainable and green maritime technologies advancing environmental goals.

Cons

  • Need for continuous education to keep up with rapidly evolving technologies and regulations.
  • Project deadlines can create periods of high stress and overtime work.
  • Fieldwork and shipyard visits may involve physically demanding or harsh environments.
  • Industry cyclicality linked to global trade fluctuations can impact job stability.
  • Complex regulatory landscapes require extensive documentation and compliance effort.
  • Limited opportunities in landlocked regions without strong maritime industries.

Common Mistakes of Beginners

  • Overlooking the importance of practical shipyard experience leads to a poor understanding of construction feasibility.
  • Underestimating the complexity and scope of maritime regulations can cause costly redesigns.
  • Relying too heavily on CAD visuals without thorough hydrodynamic or structural analysis.
  • Neglecting effective communication skills, which are crucial for coordinating diverse teams.
  • Failing to stay current with emerging technologies and materials in marine construction.
  • Ignoring client needs or operational realities when prioritizing design aesthetics.
  • Underdeveloping project management capabilities, resulting in missed deadlines.
  • Attempting to specialize too early without mastering foundational marine engineering principles.

Contextual Advice

  • Engage early in internships to gain firsthand shipyard and maritime operational experience.
  • Develop a robust understanding of international regulations and classification societies.
  • Invest time mastering multiple design and simulation software packages relevant to marine design.
  • Collaborate continuously with naval engineers and industry experts to broaden perspectives.
  • Maintain a detailed and diverse portfolio showcasing both technical and creative projects.
  • Stay updated on sustainability practices and green technologies shaping the industry.
  • Balance technical growth with soft skills like communication and team leadership.
  • Prepare to adapt designs in response to evolving environmental standards and client feedback.

Examples and Case Studies

Designing a Zero-Emission Ferry for Scandinavian Waters

A marine architectural firm collaborated with regional government agencies to develop a zero-emission passenger ferry powered entirely by hydrogen fuel cells and batteries. The project required innovative hull design to maintain weight efficiency while accommodating new propulsion technology and complying with strict Nordic maritime environmental regulations. Extensive CFD simulations optimized hull form for low resistance in cold, choppy waters. The ferry underwent rigorous stability and safety testing before entering service, demonstrating the prototype's viability and scalability.

Key Takeaway: Innovative marine architecture can enable the transition to green maritime transportation, requiring integration of new technologies with traditional vessel design principles to meet both environmental and operational challenges.

Retrofitting a Commercial Cargo Vessel for Reduced Fuel Consumption

An experienced marine architect led a retrofit of a 20-year-old commercial container ship to improve energy efficiency. The project included redesigning the bulbous bow, installing energy-saving devices like fins and propeller modifications, and upgrading the hull coating. The architect coordinated with mechanical engineers and shipyard staff to implement design adjustments without disrupting cargo operations. Post-retrofit sea trials showed substantial fuel savings and emissions reductions, extending the vessel's operational life while adhering to new regulations.

Key Takeaway: Refitting existing vessels through targeted design interventions offers cost-effective pathways to sustainability, and marine architects play a vital role in resurrecting aging fleets.

Developing Offshore Research Vessels for Arctic Exploration

Designing ice-class research vessels capable of operating in harsh, polar environments demanded innovative structural solutions to withstand extreme ice pressures. The marine architecture team integrated reinforced hulls, advanced insulation systems, and custom layouts to support scientific equipment and crew safety. Collaborating with oceanographers and climatologists ensured the vessel met both operational and scientific objectives. This project advanced the firm’s reputation for specialty vessel design and contributed to critical polar research missions.

Key Takeaway: Marine architects must tailor designs to specialized operational environments, blending engineering expertise with stakeholder collaboration to solve unique challenges.

Portfolio Tips

A compelling portfolio is essential for marine architects to demonstrate both their technical expertise and creative problem-solving skills. Focus on showcasing a variety of projects that highlight proficiency in hull design, stability analysis, and integration of marine systems. Include detailed CAD models, simulations, and technical drawings paired with explanatory notes describing the design rationale and challenges overcome. Visual presentations should balance technical precision with aesthetic appeal.

Highlight key projects where your contributions resulted in improved vessel performance, cost savings, or regulatory compliance. Including interdisciplinary efforts and examples of collaboration with naval engineers or shipbuilders strengthens your portfolio's depth. Incorporate any sustainability initiatives or innovation-driven designs, as environmental awareness is increasingly valued.

Keeping a digital portfolio with interactive 3D models or animated simulations can provide an engaging experience for prospective employers.

Ensure to maintain clear documentation of project scope, your role, and the outcomes achieved. This transparency shows professionalism and reflects your ability to manage complex projects comprehensively. Updating your portfolio regularly with new certifications, software skills, and continuing education reinforces your commitment to growth. Preparing tailored portfolio versions based on the job focus—such as commercial vessels versus offshore platforms—can give you a competitive advantage during job applications.

Job Outlook & Related Roles

Growth Rate: 6%
Status: Growing about as fast as average
Source: U.S. Bureau of Labor Statistics

Related Roles

Frequently Asked Questions

What is the difference between a marine architect and a naval engineer?

Marine architects primarily focus on the overall design, structural integrity, and hydrodynamic performance of marine vessels, including their aesthetic and functional layouts. Naval engineers specialize more in the engineering systems onboard, such as propulsion, electrical, and mechanical systems. However, the roles often overlap, and professionals may work collaboratively or hold dual expertise.

What software should a marine architect be proficient in?

Key software includes CAD platforms like AutoCAD, Rhinoceros, and SolidWorks for design modeling; NAPA and Maxsurf for specialized marine vessel design; ANSYS or MSC Nastran for simulation and stress analysis; and project management tools like Microsoft Project or Primavera. Familiarity with computational fluid dynamics (CFD) software such as ANSYS Fluent is also valuable.

Are there professional certifications required to work as a marine architect?

While not universally mandatory, certifications and licensure significantly enhance credibility and career prospects. Common credentials include Professional Engineer (PE) licensure, Chartered Engineer status, and memberships in organizations such as IMarEST or SNAME. These often require passing exams and demonstrating relevant work experience.

How important is hands-on shipyard experience for a marine architect?

Extremely important. Understanding shipbuilding processes helps marine architects design feasible, cost-effective solutions. Site visits and internships teach practical challenges and enable better communication with builders. Many employers expect candidates to have some direct exposure to shipyard environments.

Can marine architects work on offshore renewable energy projects?

Yes, marine architects increasingly contribute to designing offshore platforms, wind turbine support structures, and wave energy devices. Their expertise in hydrodynamics and structural engineering is essential to these emerging sectors.

Is the marine architecture profession remote-friendly?

The nature of the job — which combines office-based CAD work with site visits and shipyard inspections — makes it only partially remote-friendly. While design work can often be done remotely, physical presence is usually required during construction, testing, and client meetings.

What are typical career advancement opportunities for marine architects?

Career progression often moves from junior roles supporting design teams to lead marine architect or principal positions directing major projects and teams. Specialization in areas like offshore engineering or sustainable vessel design can open niche opportunities. Senior roles may involve project management or business development responsibilities.

How does environmental regulation impact marine architecture?

Regulations increasingly emphasize reducing emissions, preventing pollution, and ensuring crew safety. Marine architects must integrate these standards into vessel designs, influencing material selection, propulsion methods, and waste management systems.

What are common challenges when designing vessels for extreme environments?

Designers must ensure structural durability against ice or rough seas, thermal insulation for crew comfort, and reliable operation of systems in harsh climates. Balancing robustness with weight and cost constraints is critical, requiring specialized materials and engineering solutions.

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