What Does 'the Cloud' Mean for Healthcare and Clinical Labs?

17 Aug 2014
Sonia Nicholas
Managing Editor and Clinical Lead

Editorial article

Medical offices, hospitals, and labs are abuzz about how the cloud will change their business. What is the cloud? To oversimplify, the cloud is centralized storage servers, usually off-site, that are accessed remotely. It can be thought of as the difference between fire trucks using the on-board water tank (on-site server) and hooking on to a fire hydrant (cloud server).

The major tech players, such as Microsoft, Google and Apple, have massive data warehouses strategically placed throughout the world; buildings that house thousands and thousands of machines. While it is common to point or look to the sky when referencing 'the cloud', pointing towards North Carolina is probably more accurate.

So what does moving to the cloud mean for the healthcare industry? In some ways, it’s business as usual. Patients are still treated, blood is still drawn, and face-to-face interaction is still the norm. In other ways, it is distinctly different, namely in the areas of cost, communication, security, and power.

  • Lower Costs: Cloud computing has caught on and continues to grow in large part because of consistent cost savings. Moving any business 'to the cloud' means resources can be pooled to use at a single storage facility, rather than every individual business, so businesses don't have the overhead of maintaining on-site servers. Migrating from on-site servers means a smaller IT team, lower electricity bills (server rooms must be kept very cold), and the ability to utilize valuable commercial real estate space profitably. The space-saving aspect is especially true if paper records are moved to a digitized system. Archived digital records take up substantially less space, are less expensive to maintain than warehouses full of papers, and are searchable if the proper software interface is used.


  • Ease of Communication: Communication across healthcare fields has always presented a challenge, particularly in complex cases where a patient might visit multiple specialists in different fields and require specific tests for each. The cloud is effectively leveraged by allowing secure access to centralized documents, assuring each practitioner has the most recent, up-to-date information. Via secure servers, doctors can request blood tests from labs directly and have the results securely transmitted directly back to the patient’s electronic medical record. No more lost lab slips. Entities dealing with controlled substances can utilize this access to information to help prevent prescription drug abuse. A lab may find greater profitability when utilizing a cloud based laboratory information management system. If a doctor orders a test and uses a provided kit, that information can be transmitted through the cloud to the lab and automatically tracked for re-supply and billing.

  • Focus on Security: There can be no discussion of healthcare information without mentioning HIPAA. Can information be moved to and through the cloud while maintaining HIPAA compliance? Yes, the cloud has a fantastic bright future in healthcare so long as cloud providers have high security standards. In fact, nformation theft is more difficult in a properly secured digital cloud than it is in a medical practice still using paper records that can be misplaced easily. A HIPAA Covered Entity contracting with a cloud provider is responsible for checking the security protocol of the contractor. Things to look for include organization-wide awareness and training, (preferably certification) in HIPAA procedures, data encryption, highly controlled data center access, a disaster recovery plan, and a fleshed out security policy that meets HIPAA guidelines. Because healthcare IT is such a big market, many cloud providers are making an effort to go above and beyond HIPAA requirements to earn a piece of that pie, and health institutions should settle for nothing less than strict compliance and stellar security.

  • Portable Power: Hosting information in the cloud that is accessed remotely means even small devices can have extensive access to information and functionality that would have previously been limited by the capability of the device. Moving data to the cloud allows pocket-sized devices to access a nearly infinit amount of information without taking up any storage space; which means eliminating bulky, expensive, hard-to-replace systems. Rather than carrying around stacks of charts that have to be refiled, a doctor can carry a tablet or computer that has access to all patient charts, as well as software that can be run virtually. The benefit of virtualization is removing the step of an IT manager installing software on every piece of equipment, then periodically updating each one as needed. Software is installed on the cloud, accessed by a simple browser, and updates to that cloud-based software are immediately up-to-date on each device accessing the cloud. The cloud provides more power for lower cost and with great scalability.

In conclusion, the concept of cloud computing is not a fad that will fade away, especially not with major corporations investing billions of dollars into data centers around the world. The healthcare industry stands to especially benefit from the cost savings, ease of communication, greater security, and increased functionality. IT departments and practice managers not already formulating a shift to the cloud should consider developing this part of their strategy for the future.

Author Biography:
Sarah H. McMullin is the Project Coordinator and Customer Development Manager for Camino Information Services, an IT solutions firm located in Houston, Texas. Sarah has a Bachelor’s in Business Management as well as a Juris Doctorate. She wears many hats in her current position which include client relations, managing projects, marketing, and sales. Camino Information Services has nearly fifteen years of experience in healthcare IT including LIMS, SharePoint, cloud computing, EMR deployment, and help desk services. Camino is a member of the Microsoft Partner Network. Sarah can be reached at sarah.mcmullin@caminois.com or by calling (281)742-9565.

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LIMSLIMS (Laboratory Information Management System) is an informatics software system used to improve the quality assurance and quality control (QA / QC) of data management. LIMS can be a standard for common lab workflows, such as commercial off the shelf systems (COTS), or customized for more specialized lab use. Systems are available for mainframe computers or PC.Consultancy ServicesLaboratory consultancy services are available for automated systems design, research and development, lab equipment procurement and lab equipment rental.Data MiningData mining is an important process for extracting information, patterns and trends from data. Data mining software, databases, reference materials and storage packages are available to process lab data.Blood TransfusionBlood Transfusion involves giving donor blood to a recipient patient. Screening is essential to avoid transfusion reactions. Blood banks use immunohematological techniques to determine rh and ABO blood group, and screen for antibodies using specific antisera. Blood Banks use Direct Coombs Tests (DCT) and Indirect Coombs Tests (IAT) to detect hemolysis and Haemolytic Disease of the Newborn (HDN).HematologyIn Haematology / Hematology, complete blood cell counts (or full blood counts) are obtained using automated blood count analyzers to enumerate blood cell types.  Hematology also encompasses haemostasis and coagulation, thrombophilia and hemophilia, plasma viscosity and ESR analysis, hemoglobinopathies, cell morphology and haematinic measurement.ImmunologyImmunological techniques measure and characterize immune responses. Immunology kits and analysis systems often use techniques such as ELISA, radioimmunoassay (RIA) and immunodiffusion assays, Immunohistochemistry, and flow cytometry. Immunologists use equipment such as flow Cytometers, plate readers, plate washers and fluorescent microscopes.Cellular PathologyCellular Pathology deals with the microscopic analysis of tissue samples and cells. Sample preparation and processing includes fixation, staining, sectioning and slide mounting, using equipment such microtomes and cryostats. In choosing immunohistochemistry and immunocytochemistry kits, consider chromogens, staining method, antibodies, microscopes and imaging.Point-of-CarePoint-of-Care Testing (POCT) or Near Patient Testing (NPT) products are available for urine, blood and other clinical chemistry analyses. POCT includes: blood glucose testing, blood gas and electrolytes analysis, rapid coagulation testing (PT / INR), rapid cardiac markers diagnostics, drugs of abuse screening, urine strips testing, pregnancy testing, fecal occult blood analysis, food pathogens screening, hemoglobin diagnostics, infectious disease testing and cholesterol screening.Clinical ChemistryBiochemistry (or clinical chemistry) involves the analysis of bodily fluids using chemical tests. Techniques used include HPLC, chromatography, spectroscopy, mass spectrometry, immunochemical, electrophoresis, turbidometric / spectrophotometric assay, MRI and ISE analysis. Tests are often carried out on plasma or serum but urine (urinalysis) and fecal specimens are also processed.Clinical GeneticsMolecular Genetics covers the analysis of hereditary genetic disease and chromosomal abnormalities. Genetics can be analysed using DNA, RNA, and protein microarrays, PCR, RT PCR and DNA sequencing. Genetic equipment includes genetic workstations, thermal cyclers, cooling blocks and electrophoresis products. Diagnostic kits are used for DNA / RNA extraction and purification.Clinical MicrobiologyMicrobiology is the study of microorganisms including protists, prokaryotes, fungi, and, often, viruses. Microorganisms are a useful research tool as genetic vectors and, in immunology, for antibiotic susceptibility testing, cellular biology and genetics. Microorganisms commonly grow readily in incubators with microbial culture media; this can contain chromogenic supplements to differentiate between cell lines. Estimate your culture’s density of microorganisms with colony counters, or screen and select colonies for desirable clones with automated colony pickers. Additionally, equipment is available to monitor environments for the presence of microbes and identify with microbial identification instruments. Find the best microbiology products in our peer-reviewed product directory: compare products, check customer reviews and receive pricing direct from manufacturers.Embryology / IVFEmbryology refers to the development of an embryo resulting from the fertilization of the ovum, to fetus stage. In vitro fertilization (IVF) refers to the fertilization of the egg outside of the human body, and is an important treatment for infertility.Cloud Computing