serving × healthcare

Inference management for Healthcare.

At the point of care, a slow or unreliable model is worse than none at all. We engineer predictable low-latency serving that holds up under clinical load, runs entirely inside the PHI boundary, and pushes back-office workloads through cost-efficient batch on the same stack.

Inside the PHI boundary Predictable low latency Cost-efficient batch On-prem serving

Reliability the bedside can depend on, inside the boundary compliance can sign

Clinical inference is judged on a different axis than raw speed. A model summarizing a chart or surfacing a guideline at the point of care has to respond predictably every time — a tail-latency spike or a dropped request in the middle of a clinician's workflow erodes trust faster than a slightly slower average ever would. Reliability and steady latency, not a headline benchmark, are what make a model usable at the bedside.

And every token of it has to stay inside the PHI boundary. Protected health information cannot be shipped to an outside inference API, which means the serving layer has to run within your environment and prove it. We build serving that is predictable and available under clinical load, keeps interactive point-of-care traffic separate from heavy back-office batch, and processes everything within walls your compliance team controls.

Built for clinical reliability and PHI safety.

A serving layer engineered around predictable latency, protected data, and the mix of interactive and batch a health system runs.

01 / point-of-careCORE
Predictable point-of-care serving
A serving path tuned for steady, low-latency responses at the bedside — time-to-first-token tuning, continuous batching, and paged-attention KV-cache that hold latency flat under clinical load instead of chasing a one-off benchmark.
  • Steady time-to-first-token
  • Tail-latency control
  • Failover & queueing
02 / phi boundarySECURE
Serving inside the PHI boundary
The full inference stack runs on-prem or in your HIPAA-aligned tenant, so protected health information is processed within your control and never reaches a third-party API, with every request logged for audit.
  • On-prem / in-tenant inference
  • No third-party API calls
  • Request-level audit logging
03 / batchCORE
Cost-efficient back-office batch
Coding, documentation, and chart-review workloads run as high-throughput batch on the same stack, with quantization and right-sized routing keeping cost per token low — and isolated so bulk jobs never slow the interactive path.
  • High-throughput batch
  • Quantization to accuracy bar
  • Interactive / batch isolation

Where inference management unlocks value in Healthcare

Value concentrates wherever a model has to be both trustworthy at the bedside and economical across the back office:

  • Point-of-care assistance — chart summarization, guideline lookup, and order support respond predictably in the clinician's workflow, so the tool gets used instead of abandoned.
  • Ambient documentation — encounter capture and note generation run with steady latency, keeping the model out of the clinician's way during the visit.
  • Medical coding and revenue cycle — high-volume coding and documentation review run as cost-efficient batch, lowering cost per chart without touching the interactive path.
  • PHI-safe deployment — every interactive and batch workload runs inside your environment, so protected data never leaves and compliance can sign off on the serving layer.

Common questions.

Can LLM inference stay inside the PHI boundary?

Yes. We deploy the serving stack inside your environment — on-prem or in your HIPAA-aligned cloud tenant — so protected health information is processed entirely within your controlled boundary and never reaches a third-party inference API. The model is brought to the data rather than the data being shipped to the model, and every request is logged for audit.

How do you keep point-of-care inference both fast and reliable?

At the bedside a slow or flaky response is worse than no response, so we engineer for predictable low latency and graceful degradation rather than peak benchmark numbers. Time-to-first-token tuning, continuous batching, and paged-attention KV-cache hold latency steady under clinical load, while failover and queueing keep the service available during spikes. Back-office workloads such as coding and documentation run on the same stack as cost-efficient batch, so interactive and bulk traffic do not compete for the same path.

Explore related paths.

Serve clinical AI reliably and inside.

Bring the clinical and back-office workloads you want to run and the environment they have to stay within. In thirty minutes we will show how predictable, PHI-safe serving meets them — and how we will measure latency and cost. Response inside 24 hours.

Markets served.

As an enterprise AI agency, eeko systems delivers production AI systems remote-first across the United States and internationally — including these markets:

New York City, New York (NY)

Los Angeles, California (CA)

Chicago, Illinois (IL)

Houston, Texas (TX)

Phoenix, Arizona (AZ)

Philadelphia, Pennsylvania (PA)

San Antonio, Texas (TX)

San Diego, California (CA)

Dallas, Texas (TX)

San Jose, California (CA)

Austin, Texas (TX)

Jacksonville, Florida (FL)

Fort Worth, Texas (TX)

Columbus, Ohio (OH)

Charlotte, North Carolina (NC)

Indianapolis, Indiana (IN)

San Francisco, California (CA)

Seattle, Washington (WA)

Denver, Colorado (CO)

Washington, District of Columbia (DC)

Boston, Massachusetts (MA)

El Paso, Texas (TX)

Nashville, Tennessee (TN)

Detroit, Michigan (MI)

Oklahoma City, Oklahoma (OK)

Portland, Oregon (OR)

Las Vegas, Nevada (NV)

Memphis, Tennessee (TN)

Louisville, Kentucky (KY)

Baltimore, Maryland (MD)

Milwaukee, Wisconsin (WI)

Albuquerque, New Mexico (NM)

Tucson, Arizona (AZ)

Fresno, California (CA)

Sacramento, California (CA)

Kansas City, Missouri (MO)

Atlanta, Georgia (GA)

Miami, Florida (FL)

Colorado Springs, Colorado (CO)

Raleigh, North Carolina (NC)

Omaha, Nebraska (NE)

Long Beach, California (CA)

Virginia Beach, Virginia (VA)

Oakland, California (CA)

Minneapolis, Minnesota (MN)

Tulsa, Oklahoma (OK)

Arlington, Texas (TX)

New Orleans, Louisiana (LA)

Wichita, Kansas (KS)

Cleveland, Ohio (OH)

Tampa, Florida (FL)

Bakersfield, California (CA)

Aurora, Colorado (CO)

Honolulu, Hawaii (HI)

Anaheim, California (CA)

Santa Ana, California (CA)

Corpus Christi, Texas (TX)

Riverside, California (CA)

Lexington, Kentucky (KY)

St. Louis, Missouri (MO)

Stockton, California (CA)

Pittsburgh, Pennsylvania (PA)

Saint Paul, Minnesota (MN)

Cincinnati, Ohio (OH)

Greensboro, North Carolina (NC)

Anchorage, Alaska (AK)

Plano, Texas (TX)

Lincoln, Nebraska (NE)

Orlando, Florida (FL)

Irvine, California (CA)

Newark, New Jersey (NJ)

Toledo, Ohio (OH)

Durham, North Carolina (NC)

Chula Vista, California (CA)

Fort Wayne, Indiana (IN)

Jersey City, New Jersey (NJ)

St. Petersburg, Florida (FL)

Laredo, Texas (TX)

Madison, Wisconsin (WI)

Chandler, Arizona (AZ)

Buffalo, New York (NY)

Lubbock, Texas (TX)

Scottsdale, Arizona (AZ)

Reno, Nevada (NV)

Glendale, Arizona (AZ)

Gilbert, Arizona (AZ)

Winston-Salem, North Carolina (NC)

North Las Vegas, Nevada (NV)

Norfolk, Virginia (VA)

Chesapeake, Virginia (VA)

Fremont, California (CA)

Garland, Texas (TX)

Richmond, Virginia (VA)

Baton Rouge, Louisiana (LA)

Boise, Idaho (ID)

San Bernardino, California (CA)

Spokane, Washington (WA)

Des Moines, Iowa (IA)

Modesto, California (CA)

Birmingham, Alabama (AL)

Tacoma, Washington (WA)

Fontana, California (CA)

Oxnard, California (CA)

Fayetteville, North Carolina (NC)

Huntsville, Alabama (AL)

Moreno Valley, California (CA)

Rochester, New York (NY)

Glendale, California (CA)

Yonkers, New York (NY)

Augusta, Georgia (GA)

Amarillo, Texas (TX)

Little Rock, Arkansas (AR)

Akron, Ohio (OH)

Shreveport, Louisiana (LA)

Grand Rapids, Michigan (MI)

Mobile, Alabama (AL)

Salt Lake City, Utah (UT)

Huntsville, Texas (TX)

Tallahassee, Florida (FL)

Overland Park, Kansas (KS)

Knoxville, Tennessee (TN)

Worcester, Massachusetts (MA)

Brownsville, Texas (TX)

New Port Richey, Florida (FL)

Jackson, Mississippi (MS)

Providence, Rhode Island (RI)

Fort Lauderdale, Florida (FL)

Sioux Falls, South Dakota (SD)

Tempe, Arizona (AZ)

Cape Coral, Florida (FL)

Springfield, Missouri (MO)

Pembroke Pines, Florida (FL)

Eugene, Oregon (OR)

Peoria, Arizona (AZ)

Corona, California (CA)

Lancaster, California (CA)

Rockford, Illinois (IL)

Salinas, California (CA)

Palmdale, California (CA)

Springfield, Massachusetts (MA)

Charleston, South Carolina (SC)

Duluth, Minnesota (MN)

London, England (ENG)

Dublin, Ireland (IRE)