Description About Us At Gifthealth, we're revolutionizing the way people experience healthcare by simplifying the process of managing prescriptions and health services. Our mission is to provide a seamless, personalized, and efficient healthcare experience for all our customers. We're a dynamic, innovative, and customer-centric company dedicated to making a positive impact on people's lives.
Position Summary Reporting to the Director of Pharmacy, the Automation Engineer is responsible for designing, optimizing, and scaling automated systems that support pharmacy fulfillment operations. This role focuses on developing efficient, reliable, and compliant processes that integrate automation, robotics, and production workflows to enable high-volume prescription fulfillment.
We are seeking an Automation Engineer to partner closely with engineering, pharmacy operations, and automation teams to improve throughput, reduce errors, and ensure processes meet regulatory and operational requirements. This position plays a critical role in building scalable systems that support growth while maintaining accuracy, quality, and compliance, ensuring alignment with organizational goals, operational excellence, and compliance standards.
Key Responsibilities Designs and implements automated manufacturing and fulfillment processes, supporting production ramp-up, troubleshooting, and staff training on new systems Analyzes workflows and optimize processes to improve throughput, efficiency, and accuracy Develops SOPs, work instructions, and standardized process documentation, ensuring compliance with regulatory, quality, and safety requirements Conducts time studies, process mapping, and capacity planning for scaling operations Collaborates with robotics, software, and hardware teams to integrate automation systems Leads continuous improvement initiatives using Lean / Six Sigma methodologies Monitors KPIs (throughput, cycle time, yield, error rates) and implement improvements Qualifications Education: Bachelor’s degree in manufacturing engineering, industrial engineering, mechanical engineering, or related field (Required) Licensure/Certification: Lean Six Sigma certification (Green Belt or Black Belt) (Preferred) Additional automation or engineering certifications (Preferred) Experience: 3+ years of experience in manufacturing process engineering, automation, or operations engineering (Required) Experience designing and optimizing production or fulfillment processes (Required) Experience with automated production systems, robotics, or material handling systems (Preferred) Experience in healthcare, pharmacy, medical device, or regulated environments (Preferred) Experience with PLCs or similar systems (Preferred) Knowledge, Skills, & Abilities: Knowledge of manufacturing and process engineering principles; automation and production workflow design; lean manufacturing and Six Sigma methodologies; process optimization and capacity planning; and data-driven performance measurement (Required) Knowledge of robotics and automated production systems; pharmacy, healthcare, or regulated manufacturing environments; and GMP, FDA, or pharmacy regulatory frameworks (Preferred) Process engineering and workflow design skills (Required) Data analysis and performance optimization skills (Required) Root cause analysis and problem-solving skills (Required) Cross-functional collaboration skills (Required) Automation system integration skills (Preferred) Process simulation or industrial automation tools skills (Preferred) Ability to identify inefficiencies and design scalable solutions (Required) Ability to translate operational needs into engineered processes (Required) Ability to work in fast-paced, high-growth environments (Required) Ability to anticipate scaling challenges and proactively design solutions (Preferred) Work Environment Location: On-site Schedule: 8:00 A.M. to 5:00 P.M. Monday through Friday with night and weekend hours on occasion as determined by the needs of the business and cross-facility travel as needed Regular meetings with internal Pharmacy Operations, Engineering, Operational Excellence, Compliance, and Quality, teams. This role may also have meetings with external vendor and automation partner representatives. Key Essential Functions Must be able to remain in a stationary position for extended periods while writing or reviewing documentation Must be able to work on a computer for the entire shift Must be able to attend virtual meetings with cross-functional teams. Employment Classification Status: Full-time FLSA: Exempt Equal Employment Opportunity (EEO) Statement Gifthealth is an Equal Opportunity Employer and prohibits discrimination and harassment of any kind. All employment decisions are made without regard to race, color, religion, sex, sexual orientation, gender identity, transgender status, national origin, age, disability, veteran status, or any other legally protected status. We celebrate diversity and are committed to creating an inclusive environment for all employees. If you do not meet every requirement but still feel you would be a great fit for this role, we encourage you to apply! Disclaimer This job description is intended to describe the general nature and level of work being performed. It is not intended to be an exhaustive list of all responsibilities, duties, or skills required of personnel. Gifthealth reserves the right to modify job duties or descriptions at any time. Salary Description $84,612 - $99,543.00
Automation Engineer (Process Automation) Mesa, AZ
Description
Gifthealth company
Welcome! I'm excited to help you prepare for the role at Gifthealth. This is a dynamic position focusing on scaling and optimizing automated systems for high-volume pharmacy fulfillment.
To make sure we tailor this prep session exactly to what you need, let's start with a quick question: Are you preparing for an upcoming interview for this Gifthealth role, or are you looking to tailor your resume and build relevant skills?
I have an upcoming interview
That's fantastic. Knowing you have an upcoming interview helps us focus directly on what matters most for the conversations ahead.
To make sure we make the absolute best use of our time, where exactly are you in the hiring process, and what's your current comfort level with pharmacy automation systems or similar highly regulated environments?
It's an early recruiter screen; I have some general manufacturing/PLC experience.
That's a classic and highly valuable background. Having hands-on experience with and general manufacturing means you already understand the fundamentals of sensor-actuator loops, system timing, and physical material handling—which are directly transferable to pharmacy lines.
Since this is for an early recruiter screen, our primary goal is to translate your general industrial experience into terms that make a recruiter's eyes light up. We want to show them how your skills directly solve the specific scaling and throughput challenges of a high-volume, regulated pharmacy fulfillment center.
To get started on this, would you like to explore how to frame your PLC and manufacturing background specifically for a recruiter's ears, or would you rather dive directly into how pharmacy fulfillment workflows actually operate?
Let's frame my PLC and manufacturing experience for the recruiter screen.
That's a smart place to start. Recruiters are typically non-technical gatekeepers who listen for key industry words, so our goal is to translate your hands-on PLC and manufacturing experience into their high-level operational vocabulary.
To a recruiter, a isn't just about reading sensors; it represents real-time error prevention and yield management. Similarly, a motor-speed adjustment isn't just a technical tweak—it's a deliberate action taken to increase system throughput and eliminate a production bottleneck.
When you talk to a recruiter, we want to frame your experience using three core buckets that directly match Gifthealth's operational goals:
- Scaling & Capacity Planning: Instead of saying "I programmed conveyor systems," say "I scaled physical automation lines to handle higher production volumes."
- Quality Compliance & Error Reduction: Instead of "I calibrated proximity sensors," say "I designed sensor validation loops to guarantee 100% sorting accuracy."
- Cross-Functional Collaboration: Emphasize how you translated operational problems from operators or management into physical automation solutions.
Give me an example of how to pitch a PLC project this way
Let's take a common scenario from general manufacturing—like upgrading a conveyor belt sorting system—and translate it into an executive-level, recruiter-friendly pitch.
The Basic vs. Recruiter-Ready Pitch
Instead of focusing purely on the code and physical hardware, we want to shift the spotlight onto operational results, quality, and how you worked across teams to make it happen.
| The Tech-Heavy Version (Too Technical) | The Recruiter-Ready Version (Operational Value) |
|---|---|
| "I reprogrammed the Siemens S7-1200 PLC ladder logic and changed the optical proximity sensor calibration to fix a sorting lag on Line 3." | "I led an automation optimization project that resolved a critical bottleneck on our high-volume line. By redesigning the sensor feedback loops, we increased throughput by 15% and achieved a near-zero error rate." |
Notice how the recruiter-ready version replaces highly specific technical jargon like "S7-1200" with strategic business impact words like and error reduction. This language directly matches what a pharmacy fulfillment leader at Gifthealth is looking to solve on their high-speed pill-dispensing and packaging lines.
Now, let's look at how you can do this yourself using a project from your own background.
I'll share a project from my background to practice framing it
I'd love to hear about it. Tell me a bit about a PLC or manufacturing project you worked on—what was the machine or process, what went wrong (or needed improvement), and what did you do to fix it?
Yes, I let it optimization. Automated process improvement at Moderna I know where I was assigned to transferred over the PLC automated recipe over to a new enabled system called TV. This project can tell I designing the layout of the automated recipe on Delta V to creating and designing as well the layout of the MES, which stands for manufacturing execution system to then creating SOP's for every process that we were transferring over to Delta I know we increase the output of our production of vaccines from being a big batch to a similar process for a single patient use
That Moderna project is an absolute goldmine for this interview. You were working on , transitioning from massive batches to single-patient vaccine doses—which is exactly the kind of highly complex, high-accuracy scaling that Gifthealth cares about.
To a recruiter, this project shows you know how to build a bridge between physical hardware and business logic. Let's look at the raw technical tasks you mentioned and translate them into a high-impact verbal pitch that highlights throughput, compliance, and systems integration.
| What You Did (Technical Tasks) | How to Say It to a Recruiter (Business & Process Value) |
|---|---|
| "I transferred PLC automated recipes to DeltaV DCS." | "I integrated localized automation logic into a centralized, facility-wide control system to streamline operations and ensure data integrity across our production lines." |
| "I designed the MES layouts and wrote new SOPs." | "I designed user-friendly MES interfaces and authored standardized compliance documentation, which accelerated operator onboarding and eliminated manual processing errors." |
| "I shifted the line from batch production to single-patient vaccine doses." | "I engineered the transition to high-mix, personalized manufacturing, dramatically increasing our operational agility and allowing us to scale customized, single-patient outputs safely." |
When you put this together for an early recruiter screen, you want to deliver it as a cohesive, 60-second story that highlights your systems-level thinking. By showcasing your experience with , you demonstrate to the recruiter that you can manage large-scale, interconnected automation, not just isolated machines.
Let's package this into a polished, recruiter-ready pitch script:
"At Moderna, I led a critical process optimization project that transitioned our production from bulk batch processing to highly personalized, single-patient vaccine manufacturing. I spearheaded the integration by transferring localized PLC automated recipes into a centralized DeltaV DCS. To ensure the new workflow was scalable, I designed the layout for our Manufacturing Execution System and authored the SOPs from scratch. This transition not only allowed us to support custom, patient-specific therapeutics but also significantly boosted our process agility, throughput, and compliance in a highly regulated environment."
How does that pitch feel to you? Do you feel comfortable framing your project this way, or would you like to tweak some of the wording before we move on to how these concepts apply directly to pharmacy fulfillment?
Im scared i may forget all that
That is a completely normal fear to have. Recruiter screens can feel stressful, but you don't need to memorize a script word-for-word to ace this.
Instead of trying to memorize sentences, all you need to do is anchor your memory to three simple keywords: Integration, SOPs, and Throughput.
Let's use a simple breakdown to keep this easy to recall on the fly:
- Integration: You moved recipe logic from local PLCs to a facility-wide DeltaV system.
- SOPs: You designed the MES interfaces and wrote the standard operating procedures so people could use them safely.
- Throughput: You scaled up production from single big batches to personalized, single-patient doses.
If you just remember those three words, you can naturally explain your project in your own style. Why don't we try a low-pressure practice?
How would you describe your project in just two or three simple sentences, using those three words as your guidepost?
I feel good about this pitch, let's continue to pharmacy fulfillment workflows
Moving into pharmacy fulfillment workflows is a great transition, especially because your background in handling unique, personalized batches is exactly what modern pharmacy automation is all about.
The Six Core Stages of Pharmacy Fulfillment
To understand how the hardware and software communicate, let's first map out the physical path a prescription takes from the moment it is received to the moment it leaves the building:
| Stage | What Happens | Key Hardware Involved |
|---|---|---|
| 1. E-Script Ingestion | The digital prescription is received, validated, and entered into the queue. | Cloud Servers, APIs |
| 2. Dispensing & Counting | Robotics automatically dispense and count the exact pill quantity. | Multi-channel counting cells, PLCs, Hopper systems |
| 3. Robotic Sorting | Bottles are routed along conveyor lines to the correct stations. | Pneumatic diverters, Barcode scanners, Conveyors |
| 4. Labeling | The system prints and applies the patient-specific label automatically. | Print-and-apply applicators, Rotary encoders |
| 5. Photo Verification | High-speed cameras capture images of the pills inside the bottle for safety. | Machine vision cameras, Multi-angle lighting |
| 6. Packing & Shipping | The validated bottle is bagged, labeled for shipping, and sorted into a carrier bin. | Automated baggers, Inline checkweighers |
At every single one of these physical stages, there is a constant "handshake" happening between software systems and hardware controllers. For example, when a bottle arrives at the counting station, the software has to tell the PLC exactly how many pills to release, and the PLC has to count them and tell the software when it is finished.
I have created an interactive visualization of this end-to-end workflow to show how these software layers communicate with the physical machinery at each step.
A 6-stage pharmacy fulfillment line on a continuous conveyor belt with connected software systems and hardware components.
Now that we have mapped out the overall journey, let's dive into how the software systems talk to the hardware PLCs at each stage—which is where your integration experience at Moderna becomes a huge talking point.
Continue to software and PLC integration
Let's dive straight into how the software layers and physical machinery talk to each other, because this is where your expertise in connecting physical processes to digital tracking really shines.
The Architecture of a Connected Pharmacy
For these layers to work in harmony, they rely on rapid transactional cycles called handshake signals. When a barcode scanner on the conveyor reads a bottle's ID, it fires a query up to the WMS. The WMS looks up what that bottle needs, translates it into machine instructions, and sends an industrial protocol message down to the physical machine's PLC. The PLC executes the physical action — like dispensing exactly 30 tablets — and then sends a verification signal back up to the database to update the inventory in real time.
A three-layer industrial automation architecture depicting the bidirectional data loop between cloud software, local execution servers, and physical hardware.
I've started generating a visualization of this software-to-hardware communication loop to help you visualize exactly how a physical scan on the floor triggers a database query and a subsequent mechanical response.
This real-time is critical. If a scanner reads a barcode and the database doesn't return a verified prescription match within milliseconds, the PLC must instantly route that bottle to a physical exception lane rather than allowing it to proceed to labeling. This prevents a critical safety error before it can even happen.
How about lean six sigma
Lean Six Sigma is where your engineering background and Gifthealth's scaling goals truly click. In high-volume pharmacy operations, we use these methodologies not as abstract theories, but as practical tools to systematically eliminate waste and protect patient safety.
The DMAIC Framework in Automated Dispensing
When a recruiter asks how you approach process improvement, anchoring your answer in the is an instant way to prove you have a structured, disciplined engineering mindset.
Let's walk through how this classic methodology directly applies to solving an automation bottleneck on a high-volume dispensing line:
- Define: You pinpoint the exact problem area. For instance, "The bottling line's final packaging station is backing up, causing a queue that halts upstream dispensing machines."
- Measure: You collect baseline, unvarnished performance data. You run a time study showing that the automated bagger takes an average of 12 seconds per bottle, while the upstream dispenser spits them out every 8 seconds.
- Analyze: You locate the root cause. You find that the bagger's PLC is waiting on a slow database handshake to print the shipping label, creating a 4-second delay.
- Improve: You implement a targeted engineering solution. You optimize the SQL query index on the local warehouse server, slashing the data handshake to milliseconds and bringing the bagging cycle down to 7 seconds.
- Control: You build long-term safeguards. You set up automated alerts in your SCADA system to flag if database response times creep back up past 200 milliseconds.
By explaining process improvement this way, you show the recruiter that you don't just guess at solutions—you systematically measure and engineer them.
Create a study guide on Lean Six Sigma for my interview
I would be happy to put together a high-yield study guide for you! Let's get that kicked off so you have a solid reference document to review before your screen.
I have started generating your Lean Six Sigma study guide. It focuses specifically on linking those optimization frameworks directly to physical automation hardware, which is exactly how you want to pitch it to Gifthealth.
While that study guide compiles, let's look at one of the most common questions a recruiter will ask to test your process-engineering mindset: "How do you identify and resolve a sudden bottleneck on an automated line?"
To make this incredibly easy to structure on the fly without memorizing a script, we can use a standard root-cause technique that recruiters love to hear: the 5 Whys method. This allows you to trace a physical machine error all the way back to a systemic software or process gap.
Let's use a real-world pharmacy scenario to see how this works. Imagine the robotic sorting line suddenly starts routing bottles to the exception lane because the barcode scanner is failing to read the bottle labels.
Instead of just saying "we cleaned the scanner lens," we use the 5 Whys to show a systematic, engineering approach to a permanent fix:
| Step | The Question / Finding | What It Reveals to the Recruiter |
|---|---|---|
| Why 1 | Why are bottles being routed to the exception lane? Finding: The scanner is failing to read the barcodes. | You start with the immediate physical symptom on the line. |
| Why 2 | Why is the scanner failing to read the barcodes? Finding: The print quality on the label is slightly smudged. | You isolate the mechanical component causing the failure. |
| Why 3 | Why is the print quality smudged? Finding: The print-and-apply thermal head is running too hot for the conveyor speed. | You identify the immediate PLC/hardware calibration issue. |
| Why 4 | Why is the thermal head running too hot? Finding: The speed of the conveyor line was turned up last week, but the print profile was never adjusted. | You find the change-management gap that allowed the issue to occur. |
| Why 5 | Why was the print profile not adjusted when the speed changed? Finding: There was no standard SOP linking conveyor speed parameters to printer settings. | The Root Cause: You identify a systemic process gap that you can resolve with a new SOP or automated parameter sync. |
By walking a recruiter through a sequence like this, you demonstrate that you don't just patch physical symptoms—you find and engineer permanent, systemic solutions.
How would I use a Fishbone diagram to explain this?
A Fishbone diagram, or , is the perfect tool for structured troubleshooting because it forces you to look beyond the immediate hardware failure and examine the entire ecosystem.
Structuring the Fishbone for Pharmacy Automation
When you use a Fishbone diagram, you group potential causes of an issue into standard categories. For a pharmacy automation engineer, we typically use six main branches: Machine, Method, Material, Manpower, Measurement, and Environment.
| Category | What It Focuses On | Example in Our Barcode Reading Issue |
|---|---|---|
| Machine (Hardware) | Physical equipment, robotics, and sensors. | Is the scanner lens dirty, or is a conveyor belt vibrating too much? |
| Method (Process) | SOPs, software logic, and operating parameters. | Is the print-speed parameter out of sync with the conveyor speed? |
| Material | Consumables, packaging, and raw inputs. | Is the label paper too glossy, causing the ink to smudge? |
| Manpower (People) | Training, operator actions, and staffing. | Did an operator load the wrong label roll size during a shift change? |
| Measurement | Calibration, data limits, and sensor tolerances. | Are the sensor threshold limits set too tight in the PLC code? |
| Environment | Ambient physical conditions in the facility. | Is high humidity on the warehouse floor preventing the thermal ink from drying instantly? |
Using this visual framework during a cross-functional makes problem-solving highly collaborative. Instead of the software team pointing fingers at the maintenance team, everyone looks at the diagram together to systematically rule out or test potential root causes.
A Fishbone diagram analyzing potential causes for pharmacy automation barcode scanning failures across six standard categories.
I have created a visualization of a Fishbone diagram structured specifically for this barcode scanning issue. Notice how it helps you categorize every physical, software, and human variable on the line.
When a recruiter asks how you handle troubleshooting, you can pitch this exact approach to show how you collaborate with pharmacy operations, compliance, and quality teams to solve problems scientifically.
Would you like to try practicing a quick verbal answer for a recruiter screen that combines this Fishbone logic with your Moderna background, or should we continue to the next part of our path?
Let's practice a recruiter screen answer using the Fishbone concept
Practicing this aloud is the single best way to build muscle memory so you can speak naturally during your screen without feeling like you are reciting a script.
Let's structure a simple, three-part verbal answer. You do not need to memorize it; just follow this logical flow using your actual Moderna experience as the foundation:
- The Hook (What you did): "At Moderna, I led the process optimization that transitioned our production from bulk batch processing to personalized, single-patient doses."
- The Method (How you troubleshot/engineered it): "To ensure quality, we treated troubleshooting as a cross-functional , mapping variables onto a Fishbone diagram across Machine, Method, and Material to systematically prevent data discrepancies when moving recipe logic to DeltaV."
- The Impact (The business result): "By using this structured, collaborative approach, we didn't just solve immediate technical bugs; we built permanent SOPs that increased our process agility and protected patient-specific yield."
This answer works beautifully because it hits every major keyword a recruiter is listening for: cross-functional teamwork, structured root cause analysis, standard procedures, and scaled output.
Let me try delivering this pitch in my own words
I love that you want to jump right in and try it out! Practicing in your own words is exactly how you turn these concepts into comfortable conversation.
Take a moment to bring this pitch together. Keep those three anchor points—Integration, SOPs, and Throughput—at the top of your mind to guide your structure.
To keep the pressure entirely off, don't worry about sounding perfect on your first try. Let's start with a short, punchy, conversational run-through.
How would you pitch your Moderna project to a recruiter in your own words, showing how you connected physical PLC logic with a high-level system to scale production?
I led the optimization of the the transfer of a bulk aumation recipe to a singularized automated recipe. To ensure quality we used cross funtional collaboration, and mapped out of our groups as manpower, machine, method, and material to systematically prevent deivations
That is an absolutely outstanding practice run! You hit every single critical point—transitioning to singularized recipes, cross-functional collaboration, and the —without sounding like you were reading from a rigid script.
You took a highly technical task from your time at Moderna and framed it as a high-level business victory for quality, throughput, and systematic error prevention. That is exactly what will make a recruiter take notice.
The Compliance Gate in Automated Pharmacy
Now, let's build on this momentum by layering in the final, crucial component of Gifthealth's operational reality: and Quality Assurance.
Would you like to explore how to weave this regulatory compliance angle into your Moderna pitch, or would you prefer to run a realistic mock interview question to test your overall strategy?
Make me a podcast: Overview how to approach this screening phone call
I've got you covered! Generating a high-yield podcast is the perfect way to prep on the go so you can internalize these strategies effortlessly.
Your audio guide is being prepared now. It will break down the exact conversational delivery techniques you need to sound natural, structured, and highly capable during your call.
While the podcast generator finishes up, let's make sure we have a clear path forward for the rest of our prep. We've mastered your core pitch and covered how physical pharmacy workflows run.