2

Remote Hcc Risk Adjustment Coding Jobs in Tennessee

CDI Specialist

Franklin, TN · Remote

$33.50 - $45/hr

CDI Specialist - Remote Acute Care Hospital Experience Required Required Education * High School ... risk of mortality, and present-on-admission indicators. * Collaborate with Coding, HIM, Case ...

Compliance Auditor Full Time, 80 Per Hour Pay Period, Day Shift This position is Remote. Covenant ... company risk areas and provides auditing procedures related to documentation coding and billing ...

Overview Compliance Auditor Full Time, 80 Per Hour Pay Period, Day Shift This position is Remote ... company risk areas and provides auditing procedures related to documentation coding and billing ...

Showing results 21-40

Remote Hcc Risk Adjustment Coding information

See Tennessee salary details

$15

$19

$21

How much do remote hcc risk adjustment coding jobs pay per hour?

As of Aug 20, 2026, the average hourly pay for remote hcc risk adjustment coding in Tennessee is $19.52, according to ZipRecruiter salary data. Most workers in this role earn between $16.35 and $20.72 per hour, depending on experience, location, and employer.

What is remote HCC risk adjustment coding?

Remote HCC risk adjustment coding involves reviewing patient medical records from a remote location to identify and assign Hierarchical Condition Category (HCC) codes. These codes help determine the risk score of patients, which affects healthcare reimbursements for organizations. HCC coders must have a strong understanding of medical terminology, coding guidelines, and compliance regulations. They typically work from home, using secure software to ensure patient data privacy and accuracy in coding.

What are the key skills and qualifications needed to thrive as a remote HCC risk adjustment coder?

To thrive as a Remote HCC Risk Adjustment Coder, you need in-depth knowledge of ICD-10-CM coding guidelines, HCC risk adjustment models, and a coding certification such as CPC, CRC, or CCS. Familiarity with electronic health record (EHR) systems, coding software, and secure remote work platforms is essential. Attention to detail, analytical thinking, and strong organizational skills help coders ensure accuracy and compliance. These skills are vital for precise diagnosis coding, optimizing risk scores, and supporting reimbursement and quality initiatives in healthcare organizations.

What are some common challenges faced by remote HCC risk adjustment coders, and how can they be addressed?

Remote HCC Risk Adjustment Coders often encounter challenges such as interpreting complex medical records without direct access to providers for clarification, staying updated on frequent coding guideline changes, and managing productivity expectations in a home-based environment. To address these, coders benefit from strong communication skills to clarify documentation through digital channels, participating in ongoing education and training, and utilizing coding software or company-provided resources efficiently. Employers typically support coders with regular team meetings, access to compliance specialists, and robust knowledge-sharing platforms to help overcome these hurdles.

What is the difference between Remote Hcc Risk Adjustment Coding vs Remote Hcc Risk Adjustment Coding?

AspectRemote Hcc Risk Adjustment Coding

Since the comparison is with itself, the roles are identical. Both involve coding for HCC risk adjustment, require similar credentials like coding certifications, and are performed remotely within healthcare insurance environments. The primary difference lies in specific employer requirements or specialization, but generally, these roles are the same in scope and industry usage.

Is Remote Hcc Risk Adjustment Coding a good career?

Remote HCC Risk Adjustment Coding is a growing field within healthcare revenue cycle management, requiring knowledge of medical coding, diagnoses, and risk adjustment models. It offers opportunities for remote work, stable employment, and potential certification through programs like AHIMA or AAPC. The role is suitable for individuals interested in healthcare data analysis and coding accuracy, with demand expected to increase as healthcare payers focus on risk-based reimbursement.

What are popular job titles related to Remote Hcc Risk Adjustment Coding jobs in Tennessee?

For Remote Hcc Risk Adjustment Coding jobs in Tennessee, the most frequently searched job titles are:

What job categories do people searching Remote Hcc Risk Adjustment Coding jobs in Tennessee look for?

The top searched job categories for Remote Hcc Risk Adjustment Coding jobs in Tennessee are:

What cities in Tennessee are hiring for Remote Hcc Risk Adjustment Coding jobs?

Cities in Tennessee with the most Remote Hcc Risk Adjustment Coding job openings:

Infographic showing various Remote Hcc Risk Adjustment Coding job openings in Tennessee as of August 2026, with employment types broken down into 1% As Needed, 91% Full Time, 6% Part Time, and 2% Contract. Highlights an 87% Physical, 5% Hybrid, and 8% Remote job distribution, with an average salary of $40,592 per year, or $19.5 per hour.

Senior Mechanical Engineer, Remote Handling and Full Scale Integration

Kairos Power

Oak Ridge, TN • Remote

$99K - $131K/yr

Full-time

Re-posted 15 days ago


Job description

Job Summary

Kairos Power is seeking a highly motivated Senior Mechanical Engineer focused on Remote Handling Special Components with expertise in modular hardware design for remotely operated systems.

This role is centered on the design, physical integration, and demonstration of remote handling technologies through full-scale mockups and prototype builds. The Senior Engineer will drive 1:1 scale integration efforts to validate interfaces, clearances, tolerances, and handling sequences-systematically derisking reactor maintenance strategies prior to deployment.

This position integrates remote handling requirements directly into component architecture and system interfaces to enable efficient assembly, maintenance, inspection, and long-term operability. The role emphasizes hands-on engineering, rapid build-test cycles, and cross-functional collaboration in a highly regulated environment.

Responsibilities

Modular Maintenance System Development

  • Apply lifecycle design principles including maintainability, inspectability, and decommissioning
  • Integrate remote handling requirements into hardware architecture and system interfaces
  • Develop and maintain interface control documentation supporting plant-level integration
  • Design, build, and evaluate 1:1 scale mockups and integration test articles to validate handling concepts
  • Develop structured test plans and acceptance criteria for full-scale demonstrations
  • Coordinate test readiness reviews with QA and Systems Engineering
  • Implement design updates based on mockup results, demonstrations, and operational feedback
  • Support project planning and cost estimation for integration and testing activities
  • Interface with vendors to ensure manufacturability and feasibility of specialized components
  • Conduct risk and reliability assessments for maintenance systems
  • Ensure compliance with nuclear regulations, safety standards, and applicable codes
  • Maintain configuration-controlled design documentation

Remote Handling Solutions

  • Develop remote handling hardware enabling efficient component repair and replacement
  • Lead hands-on design-build-test cycles to mature handling approaches
  • Execute full-scale integration mockups to validate reach, clearances, tooling alignment, ergonomics, and sequencing
  • Collaborate with reactor systems and operations teams to define online and offline maintenance strategies
  • Identify integration risks early and mitigate through rapid prototyping and physical demonstration

Testing and Validation

  • Align demonstration opportunities with reactor and facility schedules
  • Develop execution plans for rapid, high-value physical demonstrations
  • Support inspections, installations, shakedown, tuning, and commissioning activities
  • Capture lessons learned from mockups and integration testing to inform future designs

Collaboration

  • Partner with engineering, laboratory, shop, and materials teams to execute accelerated hardware development
  • Coordinate cross-disciplinary integration efforts to ensure cohesive system performance

Engineering Reports

  • Publish engineering reports documenting design details, mockup results, and integration findings
  • Contribute to design basis documentation and regulatory submittals

Team Contribution

  • Share technical knowledge and best practices across the organization
  • Mentor junior engineers in hardware design, integration, and prototype testing

Other duties as assigned

Qualifications

  • B.S. in Mechanical Engineering or equivalent
  • 8+ years of experience developing hardware for demanding applications
  • Demonstrated experience with full-scale prototypes, physical integration, and hardware demonstrations
  • Experience integrating mechanical and electrical systems for remote operation preferred
  • Experience in nuclear, aerospace, defense, or other regulated industries preferred
  • Molten salt or advanced reactor experience a plus
  • Background in low-voltage systems, optical systems, and compact packaging
  • Experience with servos, motors, electromagnets, or related power electronics
  • Working knowledge of ASME codes and piping standards preferred
  • Familiarity with data acquisition tools (LabVIEW, MATLAB, Python) a plus
  • Experience mentoring junior engineers preferred

Knowledge, Skills & Abilities

  • Expertise in high-temperature systems
  • Strong hands-on mechanical aptitude in laboratory and shop environments
  • Experience developing physical mockups and rapid prototypes
  • Familiarity with radiation effects and material degradation in extreme environments preferred
  • Knowledge of pressure and fluid systems
  • Familiarity with non-destructive inspection techniques
  • Strong written, verbal, and presentation skills
  • Ability to collaborate effectively in multidisciplinary teams
  • Practical, test-driven problem-solving approach
  • Commitment to safety and operational rigor

Physical Conditions 

  • Ascending or descending ladders, stairs, scaffolding, lifts, and similar equipment
  • Setting up and transferring temporary structures (e.g., scaffolding, ladders)
  • Working in tight or confined spaces
  • Remaining stationary for prolonged periods (standing or sitting)
  • Moving between worksites
  • Adjusting, transporting, or installing objects up to 30 pounds
  • Use of various hand tools
  • Communicating effectively with team members

Environmental Conditions

  • General office environment
  • Assessing the accuracy, neatness, and thoroughness of the work assigned
  • High-concentration, demanding, and fast-paced
  • Noisy environments
  • Small and/or enclosed spaces
  • Elevated heights

Safety and PPE 

  • Reading and interpreting hazardous warning signs
  • Reporting issues with equipment or unsafe conditions
  • Wearing proper PPE, to include face mask, face shields, gloves, safety shoes
  • Manipulating, cleaning, and disposal of hazardous materials

Travel 

  • Some travel may be required, up to 25% 

Additional Requirements

  • Requires occasional schedule flexibility
  • Requires occasional extended hours to support launch and critical project timelines