<rss version="2.0" xmlns:atom="http://www.w3.org/2005/Atom"><channel xmlns:atom="http://www.w3.org/2005/Atom"><title>Martinson College</title><link>http://www.martinsoncollege.com/blog/rss/feeds</link><description>Martinson College offers quality accelerated adult and online programs that are relevant in today's increasing healthcare job market.</description><atom:link href="http://www.martinsoncollege.com/blog/rss/feeds" rel="self" type="application/rss+xml" /><lastBuildDate>Fri, 01 May 2026 06:27:30 -0700</lastBuildDate><item><guid isPermaLink="true">http://www.martinsoncollege.com/blog/post/5-things-to-consider-before-pursuing-a-career-in-healthcare</guid><link>http://www.martinsoncollege.com/blog/post/5-things-to-consider-before-pursuing-a-career-in-healthcare</link><title>5 Things to Consider Before Pursuing a Career in Healthcare</title><description>Becoming a healthcare professional entails hard work and dedication. Working in a fast-paced environment and dealing with public health can be demanding but also rewarding. Medical workers can make a difference in people's lives by providing high-quality healthcare services.
A thriving healthcare career is centered on becoming a dependable and valuable employee. This means being a professional with the proper education and training from excellent medical online learning courses.
Aside from this, a job in healthcare requires specific skill sets and the right attitudes. Before pursuing a healthcare career, you should consider the following factors:
Commitment to Serve Others
Working in healthcare means encountering people with special needs daily. You must have the capacity to understand the pain of others and deliver appropriate solutions. The profession also calls for the willingness to help people and the commitment to serve them until their needs are met.
Healthcare workers recognize their responsibilities and understand how they can impact others' lives. It might be helpful if you find fulfillment in bettering people's situations. Overall, you must have a strong commitment to serving public health.
Strengths and Weaknesses
You should assess your strengths and weaknesses before pursuing a healthcare career. It is essential to identify your skills, principles, and attitudes to see if they align with the job's expectations.
As an aspiring medical professional, you should be self-aware of the value you will bring to the institution and your limits. This serves as boundaries for determining which profession would be best for you. 
For instance, not all people are cut out to be surgeons, as it requires a strong stomach to accomplish specific medical procedures. In this case, you can consider less strenuous healthcare jobs like radio or central processing technology.
Educational Attainment
Education is an essential factor in determining a healthcare career. Your educational attainment dictates your employment opportunities. Some allied health jobs, like phlebotomists and sterilization technicians, only require completing secondary education and an accompanying health program. Other medical professions require undergraduate studies or doctorates.
Essentially, education verifies if you are qualified to become a healthcare worker. This includes acquiring the necessary skill set to succeed in your chosen specialization and the proper training to prepare you for an actual medical work setting.
Aspiring healthcare workers should not be discouraged by their lack of educational attainment as it has become easier to achieve requirements. You can enroll in an accelerated healthcare program to help you attain the prerequisites of your desired healthcare job.
Job Opportunities
Another vital factor in considering a healthcare career is job opportunities. You want to ensure that the profession you are studying offers excellent possibilities for employment. Otherwise, you might have difficulty finding work.
Research on which healthcare jobs are currently in demand and expected to grow within the coming years. For instance, sterile processing techs are in demand, while nurse anesthetists, midwives, and practitioners are expected to have a growth rate of 40% in the next eight years.
Aside from this, it would help if you also considered vertical and horizontal development. Possibilities for higher employment within the field, like managerial positions, are regarded as vertical growth. At the same time, horizontal growth alludes to employment options outside of the department or field.
Lifestyle
The last factor to consider is your lifestyle. Some healthcare positions can be demanding as they can require you to be on-call in case of emergencies. While other jobs, like medical assistants and SPT, offer flexibility. Although it could depend on the facility, these jobs have flexible hours and are less stressful than other healthcare roles.
It would help if you pursued a career with work hours that support your lifestyle to have an excellent work-life balance. Additionally, it would be best to research the average salary to choose a job that fulfils your needs.
Conclusion
 

 

 
A healthcare career can be challenging but fulfilling at the same time. Before pursuing a job in the medical field, you should consider the five factors mentioned. They can help you determine which specialization is right for you and help you better prepare for a healthcare career.
Fast track a medical career with Martinson College. We are an advanced allied health educational institution providing online learning courses for aspiring sterile processing techs and other medical professionals. We offer a fast healthcare program for those looking to streamline their healthcare careers with the utmost convenience.
Enroll at Martinson College today at www.martinsoncollege.com.
Read More: 10 Medical Terms to Remember in Microbiology</description><pubDate>Tue, 28 Mar 2023 21:24:00 -0700</pubDate></item><item><guid isPermaLink="true">http://www.martinsoncollege.com/blog/post/what-makes-a-leader-in-a-healthcare-setting</guid><link>http://www.martinsoncollege.com/blog/post/what-makes-a-leader-in-a-healthcare-setting</link><title>What Makes a Leader in a Healthcare Setting?</title><description>Healthcare operations are often complex and subjected to dynamic factors that pose difficulties. With many challenges, leaders must ensure patients receive high-quality medical care.
A leader in a healthcare setting does not have to be a person in a high position. Instead, it is someone who embodies the characteristics of an excellent medical professional.
Leading healthcare workers exhibit the following qualities:

Compassionate
Self-aware
Ethical
Emotionally Intelligent
Highly-Skilled

Most of these are developed by enrolling in a fast healthcare program. Aside from qualities, healthcare leaders carry out duties to improve operations, even if it goes beyond their job description.
True leaders in healthcare perform the following responsibilities:
 

 

 
Takes On Mentorship Roles
Great leaders consider the institution's overall growth. They use their knowledge and experience to take on mentorship roles to influence the quality of services.
A leader makes efforts to impact the staff's professional development by providing support. This can be by offering assistance or connecting counterparts with resources.
Leaders also serve as the institution's role models for expected behaviors. They exhibit the facility's core values and implement them in their work.
Inspires Collaboration
Teamwork is essential in healthcare. A leader knows how to get members to work together to help in operations.
Good leaders inspire collaboration by figuring out their coworkers' skills and enabling them to add value where possible. For instance, a technologically adept intern can assist when staff encounters computer errors.
In more crucial cases, a leader encourages members to collaborate to find quick and practical solutions to greater problems.
Prioritizes Communication
Prioritizing communication is vital in administering healthcare services. A medical worker should be able to understand patient needs and determine appropriate solutions.
 
A leading healthcare professional practices active listening in dealing with patients and members. They work well with others and encourage a culture of open and constant communication.
Members in high positions should listen to staff concerns and communicate them to the administration. A good leader advocates for the members' well-being, especially when it affects the entire facility.
At the same time, a leader in healthcare knows how to talk to members to ensure that they all work toward the same goals. Proper communication skills help maintain unity and harmony within the medical institution.
Evolves With the Times
A true leader in healthcare adapts to industry trends and shifting factors. Adaptability influences decision-making, which is an integral part of working in healthcare.
Evolving with the times allows medical workers to keep up with the best industry practices. This can be achieved through researching developments or enrolling in an affordable certification program to reeducate themselves. Constantly adapting can enhance operations and allow workers to continue administering healthcare effectively.
In addition, showing a willingness to adapt is an excellent way for leaders to lead by example. This can inspire members to continue learning how to improve their skills and provide more value to the organization.
Conclusion
The healthcare industry is always in need of workers who exhibit leadership qualities. Medical professionals who mentor, collaborate, communicate, and adapt are invaluable to healthcare settings. By performing the duties of a true industry leader, healthcare workers ensure the quality of their services. This can lead to more effective and successful patient care.
Become a leader in healthcare by enrolling in an accelerated healthcare program from Martinson College. They are a leading allied-health learning institution for sterile processing technicians. Visit Martinson College at their website at https://www.martinsoncollege.com/ to enroll.
Read More: Top 5 Short Courses to Try in Healthcare</description><pubDate>Tue, 21 Mar 2023 20:32:00 -0700</pubDate></item><item><guid isPermaLink="true">http://www.martinsoncollege.com/blog/post/benefits-of-elearning-in-the-healthcare-industry</guid><link>http://www.martinsoncollege.com/blog/post/benefits-of-elearning-in-the-healthcare-industry</link><title>Benefits of eLearning in the Healthcare Industry</title><description>The rise of alternative learning setups has continued to grow throughout the years. This addresses a broader range of learners that might not respond optimally to traditional setups for reasons including conflicting schedules, preference for self-paced learning, and transportation issues.
Combined with a great deal of time it takes to accomplish education programs, several challenges hinder student learning in the traditional setup. Fortunately, technological innovations have presented a solution through online learning or eLearning. It is a digital-centered learning system where students and educators meet online.
eLearning has become more apparent in today's academic practices for its convenience. This was especially impactful during the pandemic when student learning was disrupted, and the physical classroom setup was deemed unsafe. This has led institutions to adopt an online learning system to persist in providing education to their students.
But even before then, virtual classes have been observed by many schools and universities for their advantages. It has become a standard in learning institutions, including those that offer health-allied education. eLearning greatly benefited healthcare education programs as these courses often deal with vast resources and comprehensive lessons.
Due to healthcare education&amp;rsquo;s extensive nature, aspiring medical workers can gain from taking eLearning courses, such as an online course for sterile processing technician. These programs provide convenience for someone looking forward to learning alternatives in the healthcare industry.
What is eLearning?

eLearning, or electronic learning, refers to gaining knowledge or skills through electronic means, typically over the internet. It is a convenient and flexible way of learning that allows students to access educational materials anywhere in the world at any time.
Lessons in eLearning are delivered in various media types, including videos, audio recordings, interactive simulations, and online discussions. These materials are often designed to be engaging and interactive, allowing students to learn at their own pace and in their preferred style.
eLearning allows students to access course materials, communicate with instructors and peers, complete assignments, and track their progress virtually. In the healthcare industry, eLearning provides convenient learning for medical students and professionals.
Benefits of eLearning in the Healthcare Industry
The value of eLearning in the healthcare industry can be defined by the following benefits:
Addresses Multiple Learner Types
Not all students respond equally to the same learning method; some prefer self-paced, and others enjoy consistent timed meetings. Online learning addresses several types of learners because classes can be synchronous or asynchronous.
Synchronous online classes follow the same pattern as traditional classes, except students and teachers meet virtually. On the other hand, asynchronous courses follow a self-paced system. Students can access resources such as lessons, quizzes, and projects and accomplish them whenever they choose as long as they finish them within the course&amp;rsquo;s time frame.
These options allow students choose a program according to their preferred learning style and schedule. Online learning provides an opportunity for learners who might struggle with a traditional classroom setup.
By providing a more inclusive approach to learning, eLearning can significantly impact learning outcomes. This can result in the improvement of student learning retention, passing rates, and overall academic performance.
Enhances Learning Experience
eLearning can improve the learning experience by preventing challenges students face in traditional learning settings like information overload and burnout.
Online courses allow students to tackle lessons independently and avoid factors that make learning difficult. This includes lengthy transportation, a busy environment, and other challenges.
Because eLearning provides a wide variety of teaching formats, it can also improve how students respond to the lessons. For instance, sterile processing students might learn about the different common methods of disinfection more effectively through video demonstrations.
Reduced Training Costs
Generally, enrolling on healthcare courses already costs a substantial amount. This can cost even more with physical meetings and training sessions. With eLearning, the expense of studying in healthcare programs has been reduced by diminishing the need for transportation.
In eLearning courses, classes are conducted virtually, and learning resources are available online. This eliminates the need for travel and the purchase of books, reducing the overall cost of learning.
24/7 Access to Learning Materials
With the availability of courses online, students can access educational resources at any time or place. This can be invaluable for employed learners or those with busy schedules, allowing them to conduct their studies in more favorable settings.
Online learning provides students convenience and the ability to revisit past lessons easily. eLearning also makes educational resources accessible through mobile devices, alleviating the struggle of carrying heavy books to study.
Efficient and Environment Friendly
As eLearning is done primarily online, this eliminates the need for traditional learning resources like books. This can significantly decrease paper use in academic settings, helping preserve trees. Additionally, without the need to travel, learning becomes more environmentally friendly since it leads to lower carbon emissions.
Provides Advanced Learning Analytics
One of the most significant benefits of online learning is its ability to produce advanced analytics based on student performance. This streamlines grading and assessments by providing real-time analytics that help educators evaluate students.
eLearning data is also useful for learners as they can assess their performance in class. It allows students to know how well they are doing in the program and act according to their performance.
Allows Learning About Developments Quicker
Aside from its benefits for aspiring medical workers, eLearning helps practicing healthcare professionals keep up with developments in their respective fields. This includes learning about new medical equipment, drugs, or methods for treating health conditions.
eLearning supports the constant evolution of healthcare by providing means for workers to learn about innovations in the industry consistently.
In medical establishments, eLearning can help teach employees about new company policies. For instance, the human resource department can set up virtual meetings to discuss proper patient-doctor etiquette in the institution. These online interactions are great for making way for health practitioners' often busy schedules.
Another example of how eLearning provides value to the healthcare industry is the heightened access to medical conventions. Some medical conventions or conferences are available online, allowing doctors and other healthcare workers to participate virtually.
Conclusion
eLearning has quickly become a pillar of the healthcare industry for its benefits to aspiring healthcare workers and practicing medical professionals. With the convenience of eLearning, students experience enhanced learning with fewer costs. It also helps medical practitioners stay current with the developments in the industry, supporting the improvement of healthcare practices.
Experience high-quality online medical training with Martinson College. We are a credible online learning institution specializing in sterile processing tech. In Fullerton, California, Martinson College has enhanced the Central Services and Sterile Processing Departments (CS/SPD) standards in healthcare facilities worldwide.
Enroll in the best online sterile processing course with Martinson College. Learn about admissions here.
Want to learn more about sterile processing tech and other medical programs? Read more about them in our blog posts:
 </description><pubDate>Tue, 14 Mar 2023 20:31:00 -0700</pubDate></item><item><guid isPermaLink="true">http://www.martinsoncollege.com/blog/post/what-is-medical-device-reprocessing</guid><link>http://www.martinsoncollege.com/blog/post/what-is-medical-device-reprocessing</link><title>What is Medical Device Reprocessing?</title><description>When medical devices are used on patients, they become soiled and contaminated with microbes. The most crucial part of sterile processing technician training is knowing how to eliminate pathogens from these instruments completely. This process is called medical device reprocessing, where used tools undergo a detailed multistep sterilization process.
 
Defining Medical Device Reprocessing
According to central service technician online courses, medical device reprocessing refers to the disinfection, cleaning, remanufacturing, testing, packaging and labeling, and sterilization of used medical instruments so they can safely be put in service again.
A competent SPT online course includes hands-on practice in each step. Every SPT must pay careful notice of every procedure and perform them with the utmost diligence to prevent the risk of infection.
 
Devices Qualified for Reprocessing
Before diving deeper into medical device reprocessing, you must familiarize yourself with single-use and reusable devices.
Medical devices labeled "single-use only" cannot undergo reprocessing since they are intended to be disposed of after use. They must never be used again, even on the same patient. Some examples of single-use instruments include orthopedic implants, needles, and catheters.
The only medical devices qualified for reprocessing are those labeled "reusable." As the name implies, reusable tools and equipment can be reused multiple times on the same or various patients as long as they undergo thorough sterilization. Stethoscopes, forceps, and endoscopes are equipment classified as reusable.
Meanwhile, you may have heard of "single-patient use" devices. While they are similar to reusable devices in terms of qualification for reprocessing, these tools may only be reused on the same patient.
 
Level of Reprocessing
Now that you have an idea of the devices qualified for reprocessing, you must now understand the level each tool requires.
The level of reprocessing per device varies depending on the point of entry and intended use. To quickly determine the appropriate process, SPTs use the Spaulding Classification as a guide:
 
Non-Critical Risk
Non-critical risk devices make contact with the skin, not the mucus membranes or sterile body cavities.
Examples:

Stethoscopes,
blood pressure cuffs,
and blood glucose meters.

Application: As necessary, a minimum of a low disinfection process with detergent and water.
 
Semi-Critical Risk Devices
Semi-critical risk devices come into contact with the mucus membranes and non-intact skin, not the sterile body cavities.
Examples: endoscopes, speculums, and laryngoscope blades
Application: Sterilization is preferred, but a high-level chemical disinfection process is required if not possible.
 
Critical Risk Devices
Critical risk devices come in contact with blood and sterile body cavities.
Examples: surgical equipment such as implants, forceps, and syringes
Application: Sterilization is required
 
 Medical Device Reprocessing Procedures
All devices of varying levels undergo specific procedures to remove soil and contaminants on their surfaces. While most non-critical tools are sterilized at the disinfection stage, critical devices must undergo all the processes.
Below, you can read the procedures undertaken during medical device reprocessing:
 
Point of Use Treatment
The sterilization of medical equipment begins at the point of use.
Point of use refers to the physical location and interface where the medical equipment is utilized following its intended usage or a site close to where the device is used.
At the point of use, waste, single-use, and reusable items must be separated, and sharps must be placed in a puncture-resistant container. Prompt initial cleaning steps and measures must be performed to prevent soil and contaminants from drying.
Instrument transport spray foam or gel can keep the devices moist for 72 hours.
 
Cleaning
The next step in medical device reprocessing is cleaning.
All visible and non-visible soil, contaminants, and foreign materials are removed from the medical devices during cleaning. All items must undergo cleaning before disinfection and sterilization since leftover soil may render the chemicals weak or inefficient.
 
Inspection
After cleaning, all items are carefully examined for possible residual waste and contaminants. Inspection verifies the device's cleanliness and detects defects and necessary repairs or replacements.
 
Packaging
Upon confirmation of the devices' cleanliness, they are prepared and packaged for disinfection and sterilization. Before transfer to the sterile processing department, medical devices may be stored in pouches or trays.
 
Disinfection and Sterilization
Depending on the tool type and use, the medical devices may undergo disinfection and sterilization.
As mentioned, non-critical items are usually put through the disinfection process, while semi-critical and critical items need sterilization to eliminate foreign matter from their surfaces.
Disinfection refers to eliminating microbial matter from medical devices but not the spores. Disinfection uses liquid chemicals like hydrogen peroxide, alcohol, chlorine compounds, peracetic acid, formaldehyde, or wet pasteurization.
Meanwhile, sterilization aims to destroy all microbial life, including spores. There are three main categories of sterilization:

Physical sterilization: uses autoclaves, machines that combine high heat and pressure to kill microorganisms.
Chemical sterilization: may include ethylene oxide, chlorine dioxide gas, and vaporized hydrogen peroxide. Chemical sterilization processes can be combined with physical procedures.
Radiation sterilization: uses radioactive procedures such as gamma ray and electron beam sterilization.

 
Sterility Assurance Monitoring
After all medical devices have undergone disinfection or sterilization procedures, the final step is to perform sterility assurance monitoring.
This last process ensures that the instrument was subjected to the proper cycle and has met the parameters validated by the sterility assurance product. Biological indicators, chemical indicators, Bowie-Dick tests, and reusable test packs are some examples of sterility assurance products.
 
The Importance of Medical Device Reprocessing
Medical device reprocessing ensures patient safety by eliminating pathogens from clinical instruments before recirculation. Reprocessing reusable devices also allows hospitals and healthcare facilities to save on costs from single-use items.
With thousands of medical devices used across patients daily, sterile processing technicians are responsible for keeping each piece free from potential infection. SPTs may work in the background, but their service to the healthcare industry has been proven valuable for all patients.
If you wish to start your training as a member of allied health, visit Martinson College to enroll in their accelerated adult and online courses for sterile processing technicians. Their programs are carefully designed for ease of use and immersive learning by combining text, audio, video, and high-resolution images.
Martinson College's goal is to ensure you acquire the necessary knowledge to help you successfully pass the international certification exam. Visit http://www.martinsoncollege.com/ for more details.
 
Read More: Tips for Disinfecting your Workplace
 
 

 

 </description><pubDate>Tue, 07 Mar 2023 23:32:00 -0700</pubDate></item><item><guid isPermaLink="true">http://www.martinsoncollege.com/blog/post/10-medical-terms-to-remember-in-microbiology</guid><link>http://www.martinsoncollege.com/blog/post/10-medical-terms-to-remember-in-microbiology</link><title>10 Medical Terms to Remember in Microbiology</title><description>One of the most valuable fields of study in the medical industry is microbiology.
Microbiology is the scientific study of living microorganisms too tiny to be observed by the naked eye. If you plan to become a sterile processing technician, microbiology is a subject you must take in your online learning to understand how microbes interact with people and the environment.
Not all branches and purposes of microbiology are used in healthcare. Microbiology is a broad field of study encompassing industrial and environmental applications. Though all of its areas can contribute to medicine, only medical microbiology can identify and manage infectious diseases.
When taking the best online sterile processing course, you will be taught the details of medical microbiology. Medical microbiology is a subset that focuses on preventing, diagnosing, and treating infectious diseases and clinical applications of microbes for health improvement.
Knowing about medical microbiology before enrolling in an online course for sterile processing technicians can help make your studies easier. We listed several terminologies under three categories in our infographic below:
 
Microbiological Practices
Under a medical microbiology course, you will be taught practices to prevent the spread of infection. Microbiological practices are used to create a sterile and safe environment for handling contaminated items, some of which include the following:
 (1) Aseptic Technique
Aseptic techniques, also called medical asepsis, are a series of practices and procedures under controlled conditions to prevent contamination from microorganisms purposefully. Aseptic techniques are used in surgery rooms, outpatient care centers, and clinics. Medical asepsis consists of four main aspects: using sterile barriers, preparing sterile equipment for patients, environmental control, and following contact guidelines.
 
(2) Biosafety Levels (BSL)
Biosafety refers to safe practices for adequately handling and containing biological materials and infectious organisms.
All healthcare institutions must have their biosafety manuals to minimize exposure hazards. There are four biosafety levels (BSL) describing the associated risk intensity:

BSL 1 &amp;ndash; low individual and community risk (e.g.,  coli)
BSL 2 &amp;ndash; moderate individual risk; limited community, environment, and livestock risk (e.g., Salmonella)
BSL 3 &amp;ndash; high individual risk; low community risk (Rabies virus)
BSL 4 &amp;ndash; high individual and community risk (Smallpox virus)

 
(3) Biosafety Cabinet (BSC)
A biosafety cabinet is a type of biocontainment used for working with instruments and materials contaminated by microbes requiring specific biosafety levels. It is a well-ventilated, enclosed workspace to protect personnel and the environment from infection. In the United States, there are three primary classes of BSC:

Class I &amp;ndash; infrequently used; provide personnel and environmental protection but not product protection
Class II &amp;ndash; provides better protection than Class I; offers personnel, environmental, and product protection
Class III &amp;ndash; fully enclosed cabinet; provides maximum personnel, environmental, and product protection

 
Microbiological Organisms
The medical field has classified modern microbiology into several categories for quicker and more accurate diagnosis and treatment. Some of the most common types of microorganisms you may encounter as an SPT includes:
(1) Bacteria
Bacteria are tiny, free-living organisms that are the causative agents of many diseases. While they may cause illness, bacteria are also used to develop valuable antibiotics for treating patients. Some examples of common bacteria in hospitals include Staphylococcus aureus and Acinetobacter.
 
(2) Viruses
Viruses are infectious microbes only capable of replicating within the living cells of an organism. Like bacteria, viruses cause diseases, some of which are highly contagious, and are also used for developing vaccines. Examples of viruses include Influenza, Human Immunodeficiency Virus (HIV), and Herpes.
(3) Parasites
Parasites are organisms living in or on a host organism, usually taking food at the expense of their host. Parasites can simultaneously injure, derive crucial substances, and deliver diseases to humans. Three classifications of parasites can make people ill: protozoa, ectoparasites, and helminths (worms).
 
(4) Fungi
Fungi fall under the mycology category in microbiology, consisting of mushrooms, molds, and yeasts. Fungi deliver harm and benefits to humans &amp;ndash; they can cause allergies, infection, poisoning, and digestive issues, yet they are also used to develop medicine to counter bacteria.
 
As a sterile processing technician, you ensure these microorganisms are eliminated from medical tools and equipment before they are used on patients. Each microbe classification causes varying risk levels in people and the surroundings; thus, following the proper sterilization process is paramount to prevent infection from spreading.
 
Disinfection and Sterilization
Sterile processing technicians use a wide array of equipment and apparatuses to eliminate infectious microorganisms from hundreds of medical instruments daily. Microbiologists also use these tools to research and contain microbes in the laboratory.
(1) Autoclave
An autoclave is a machine used to kill infectious bacteria, viruses, fungi, spores, and other infectious microbes. Autoclaves use a combination of heat, moisture, and pressure to eliminate all microorganisms from medical tools. This type of equipment is considered the most effective machine for decontamination and sterilization.
 
(2) Disinfectants
Disinfectants are substances or processes used to eliminate harmful microorganisms from various surfaces. Many disinfectants come in the form of harsh chemicals such as hydrogen peroxide and bleach, but often high heat and radiation are used. Disinfectants must be left on medical tools and equipment surfaces to ensure all bacteria, viruses, and fungi are killed.
 
(3) Ultrasonic Bath
While you may believe that only chemicals, heat, and pressure are used to eliminate pathogens, you might be surprised to find that sound is also effective in disinfection.
An ultrasonic bath uses high-frequency sound waves and liquid to clean the surfaces of many hospital instruments, creating billions of bubbles. These bubbles can penetrate every surface of medical tools, effectively clearing tiny holes and recesses of dirt, bacteria, and other infectious matter.
 
Understanding Microbiology in Sterile Processing
Whenever there is contamination, there is the presence of pathogenic microorganisms. Sterile processing technicians are expected to know this fact since they ensure these microbes do not further spread across patients.
When medical instruments and equipment are sent to the sterile processing department, they must all be handled as infectious. Thus, it is paramount to decontaminate and sterilize these items before they are recirculated.
Since microorganisms are not perceptible by the naked eye, having a thorough understanding of microbiology can aid you in understanding how to protect the patients and yourself.
You can gain more knowledge on medical microbiology by enrolling in a sterile processing technician program at Martinson College. They offer accelerated adult and online courses designed for SPTs. Visit their website https://www.martinsoncollege.com/contact-us for details.

 

 </description><pubDate>Wed, 01 Mar 2023 00:38:00 -0700</pubDate></item><item><guid isPermaLink="true">http://www.martinsoncollege.com/blog/post/microbiology-its-importance-in-the-healthcare-industry</guid><link>http://www.martinsoncollege.com/blog/post/microbiology-its-importance-in-the-healthcare-industry</link><title>Microbiology: Its Importance in the Healthcare Industry</title><description>Microbiology is the study of microorganisms that are too small to be seen by the naked eye.
 
Microbiology is a branch of science that looks closer at unicellular or cell-cluster organisms like viruses, bacteria, algae, fungi, and protozoa. The discovery and development of antibiotics and vaccines, considered significant findings in the field, were primarily attributed to microbiology.
 
Undoubtedly, microbiology is considered one of the most significant sciences in biology that can be studied in a sterile processing technician review. Microbiology for health professionals applies to pathology, which involves learning about the structure and functions of the body's organs and tissues. Additionally, conducting this method can be helpful for research into the different causes of certain diseases, treatments, and uses of bacteria for industrial purposes.
 
Microbiology in Healthcare
The role of microbiology in treating illnesses is crucial. Thousands of people work as biomedical scientists in hospitals and medical laboratories, wherein they have various functions, which are as follows:

Analyze tissues, blood, and fluid samples for diagnosis
Assessing therapies
Tracking disease epidemics.

 
Diseases are diagnosed using pathology, which involves studying the causes and mechanisms of various diseases and ailments. Microbes cause diseases and contribute to symptoms of infections. People can take different safety precautions that help protect themselves from becoming ill.
 
Importance of Microbiology in Medicine and Science
Cells in humans and animals can benefit and be harmed by different microorganisms. Viruses, bacteria, fungi, and parasites are some microbes the cells encounter.
 
Microbiology in medicine is significant for medical professionals, particularly sterile processing technicians. A sterile processing technician is a medical professional that plays an essential role in indirectly providing medical care for patients. Their job involves carefully sterilizing medical instruments and equipment to ensure the safety of patients and medical staff against transmission of infections.
 
One of the importance of microbiology in healthcare is how it can help recognize, isolate, diagnose, and prevent harmful bacteria. Microbiologists can also create antibacterial medications by genetically engineering advantageous microbes. One good example of medical microbiology that helps detect pathogens in tissue specimens is fluorescent fusion.
 
Microbiology is needed regarding the procedures used in creating and maintaining a sterile field in hospitals. For example, in operation rooms, maintaining a sterile field is necessary. Healthcare professionals must know how to develop and maintain it to prevent post-operation infections.
 
One of the essential health precautions in the healthcare field is handwashing. Even though it is relatively simple, handwashing tends to be overlooked. However, handwashing can help prevent or reduce the chances of spreading infections. Handwashing techniques help reduce loads of microorganisms on the hands of a healthcare professional, which helps restrict the risk of hospital-acquired diseases and ailments.
 
 

 

 
 
Conclusion
Knowledge of microbiology can help health professionals that studied SPT online use sterile equipment, which is a necessary component of invasive medical procedures. The knowledge of sterilization techniques is crucial for healthcare professionals, mainly sterile processing technicians. The job of sterile processing technicians mainly involves sterilizing medical equipment and tools used in various medical procedures.
 
Besides this, microbiology also helps appropriately dispose of biomedical waste and segregate waste in different bins based on its origin.
 
If you want a trusted and effective sterile processing technician or SPT school, visit Martinson College at their website https://www.martinsoncollege.com/ to learn more.
 
Read More: 10 Reasons Why Sterile Processing is Important</description><pubDate>Mon, 27 Feb 2023 22:33:00 -0700</pubDate></item><item><guid isPermaLink="true">http://www.martinsoncollege.com/blog/post/a-brief-history-of-endoscopy</guid><link>http://www.martinsoncollege.com/blog/post/a-brief-history-of-endoscopy</link><title>A Brief History of Endoscopy</title><description>Endoscopy refers to a nonsurgical procedure of examining a person's digestive tract. A medical professional can view pictures of a patient's digestive tract on a color TV monitor using an endoscope, a flexible tube with a light, and a camera attached.
 
Endoscopies are minimally invasive as they involve the body's openings, like the mouth and the anus, and they can also be inserted into small incisions in the knee or abdomen. On the other hand, surgery completed through a small incision assisted with instruments such as the endoscope is called keyhole surgery.
 
An endoscopy certificate course is crucial since it ensures safety in verifying proper equipment cleaning, decontamination, disinfection, and calibration of endoscopic instruments according to standards. Read on and discover more about the long history of endoscopy as we tackle it further in this article.
 
Early Developments of Endoscopic-like Instruments
Instruments like the concept of endoscope began to be used in medicine as early as the ancient Greek and Roman periods. A medical instrument considered a prototype of an endoscope was discovered in the ruins of Pompeii.
 
However, Philip Bozzini first attempted to observe the living human body directly. Bozzini developed a tube known as a Lichtleiter or light guiding instrument in 1805, four years before his death from typhoid. Considered the first successful endoscope, Bozzini used this instrument to examine the urinary tract, rectum, and pharynx.
 
The endoscope did not gain popularity until 1822 when William Beaumont used the equipment on a human body. In Boston, United States, John Fisher described a similar instrument that used candlelight, a tubular speculum, and a system of mirrors in 1827.
 
Meanwhile, in 1853, Antoine Jean Desormeaux of France developed an instrument to examine the body's urinary tract and the bladder. Desormeaux named the instrument endoscope the first time the term was used in history.
 
The use of electric light was considered a significant turning point in using the endoscope in procedures, which was initially available only for external use. Electric light was soon developed for internal use, such as Charles David's invention of the hysteroscope and experiments conducted by Hans Christian Jacobaeus.
 
Dr. Adolph Kussmaul succeeded in taking a look inside the stomach of a living human body for the first time in 1868. The attempt was successful after a series of trials on a sword-swallower that could gulp down a straight, 47-centimeter-long metal tube 13 millimeters in diameter.
 
Ten years later, doctors Max Nitze and Josef Liter invented the cystourethroscope. Meanwhile, in 1881, Johann von Mikulicz and his associates developed the first gastroscope that could be used in conducting practical applications.
 
Dr. Rudolph Schindler and Endoscopy in the United States
In 1932, Dr. Rudolph Schindler developed a flexible gastroscope, a modified version of earlier inventions. The flexible gastroscope allowed stomach examinations even while the tube was bent. The tube was about 75 centimeters in length and 11 millimeters in diameter. About a third of the entire length of the flexible gastroscope toward its tip could be bent to a certain degree. Schindler examined the insides of a stomach using numerous lenses positioned through the tube with a miniature light bulb.
 
Schindler's lifelong contribution to developing endoscopes and imaginative technical talent was combined with significant clinical contributions. This contribution includes a book entitled Lehrbuch und Atlas der Gastroskopie, which he wrote in Munich.
 
Subsequently, Schindler moved to Chicago in 1934 and continued to make his mark in gastroenterology and endoscopy in the United States and the world. Schindler was a founding member of the American Gastroscopic Club.
 
Harold Horace Hopkins and Fiber Optics
Harold Horace Hopkins is a renowned British physicist whose "wave theory of aberrations" led to changes in optic design and medical optics. The wave theory of aberrations provides mathematical analysis modern computers use to create high-quality lenses.
 
Hopkins' notable inventions include zoom lenses, coherent fiber optics, and the rod-lens endoscope. This rod-lens endoscope paved the way for the procedure we know today as keyhole surgery, a technique that has helped millions of people worldwide.
 
Hopkins received numerous prestigious accolades and awards for his work. He has also been nominated twice for a Nobel Prize. In 2009, his son Kelvin Hopkins threw the Hopkins building to the public to bring biomedical and pharmaceutical research together under one roof. Today, Hopkins signifies the pursuit of excellence in teaching and research.
 
Endoscopy Procedure
 
 

 

 
 
The procedure may depend on the reason for the endoscopy. Typically, there are three main reasons for carrying out an endoscopic medical procedure:

Investigation: If a patient is experiencing vomiting, abdominal pain, breathing problems, stomach ulcers, difficulty swallowing, or gastrointestinal bleeding, an endoscope can be used to look for the cause of the symptoms.
Confirmation of a diagnosis: An endoscopy can be used in conducting a biopsy to confirm a cancer diagnosis or other diseases or illnesses.
Treatment: An endoscope can be used to treat an illness directly. For example, endoscopy can be used in cauterizing or sealing using heat, a bleeding vessel or removing a polyp.

 
In some situations, an endoscopy can be combined with another procedure, such as an ultrasound scan. Endoscopy can help place the ultrasound probe close to internal organs that can be difficult to see in an image, such as the pancreas.
 
Endoscopy is typically conducted while the patient is conscious. However, there are also instances when the person will receive a local anesthetic. Commonly, the local anesthetic used is an anesthetic spray to the back of the throat.
 
For endoscopy procedures that involve entry through the mouth, a mouth guard is used to protect the teeth and lips as the tube is inserted.
 
Conclusion
Learning about endoscopy technician certification online involves investigating deeper into endoscopic procedures and their history, usually minimally invasive medical procedures. Medical professionals may use endoscopic procedures to investigate, diagnose, or treat gastrointestinal conditions.
 
Endoscopic procedures have low complication rates. A patient is typically discharged within a few hours after an endoscopic procedure. However, some side effects may occur after an endoscopy, such as a sore throat or bloating, which are typically resolved quickly.
 
For more details about the endoscopy certificate course and sterile processing technician or SPT training, visit Martinson College at https://www.martinsoncollege.com.
 
Read More: Endoscopy Technician: Everything You Need to Know</description><pubDate>Mon, 13 Feb 2023 22:32:00 -0700</pubDate></item><item><guid isPermaLink="true">http://www.martinsoncollege.com/blog/post/10-facts-everyone-should-know-about-microbiology</guid><link>http://www.martinsoncollege.com/blog/post/10-facts-everyone-should-know-about-microbiology</link><title>10 Facts Everyone Should Know About Microbiology</title><description>Despite how tiny microbes are, they significantly impact every process on Earth, such as climate change, nutrient cycling, and biodegradation. If you are a sterile processing technician (SPT), understanding how these microorganisms work is critical knowledge you need for your CBSPD verification or recertification exam.
Microbiology is one of the many subjects you will be taught in a CSPDT certification program. After all, SPTs are tasked with decontaminating and sterilizing medical instruments from harmful microbes that could cause infection across patients. To help you with your CBSPD certification requirements, browse our infographic about microbiology.
 
What is Microbiology?
Microbiology is the scientific study of microorganisms. "Micro" means small, while "biology" refers to the study of living things.
Microbiology is vital in medicine since it allows us to discern which organism causes infectious diseases from those necessary for us to live.
Microbiology is a vast area of science, and it is divided into many subfields of study:

Bacteriology &amp;ndash; the study of bacteria
Parasitology &amp;ndash; the study of parasites
Mycology &amp;ndash; the study of fungi
Protozoology &amp;ndash; the study of protozoa
Phycology/Algology &amp;ndash; the study of algae
Virology &amp;ndash; the study of viruses
Nematology &amp;ndash; the study of nematodes
Immunology &amp;ndash; the study of the immune system

 
Ten Facts about Microbiology
Microbiology is a fascinating scientific concept. Below, you will discover several interesting facts proving how big the microscopic realm truly is.
 


 The Largest Bacteria is Visible to the Naked Eye


Many of us believe bacteria are too small to see, and while this is inherently true, there is one strain large enough for our naked eyes to recognize.
The Thiomargarita magnifica is shaped like a human eyelash and is reportedly around a centimeter in length, making it 5000 times larger than other giant bacteria. This gargantuan microbe was discovered attaching itself to the leaves amongst the Mangroves of the island of Guadeloupe.
 


 The Smallest Bacteria is the Mycoplasma


Speaking of bacteria size, Mycoplasmas measure roughly about 0.1 micron (&amp;micro;m) in diameter, making it the smallest cell capable of independent growth and self-replication. Mycoplasmas are parasitic bacteria that can infect various body parts, including the bladder, respiratory system, and waste disposal organs.
Mycoplasmas lack a cell wall around their cell membranes, making them resistant to most common antibiotics like penicillin.
 


 We are only about 43% Human


It has been a common misconception that bacteria in our body outnumber our human cells 10 to 1. While it is true that there may be more microbes in our bodies than in human cells, the proportion is incorrect.
According to Prof Rob Knight from the University of California in San Diego, the current estimate is 43% human cells, and microbes dominate the rest. But since these microorganisms are smaller, their total mass is estimated at around 200g, making us 99.7% human by weight.
 


 Tobacco led to the Discovery of Viruses


In 1887, Dmitri Ivanovsky was sent to Ukraine and Bessarabia to investigate a disease damaging Tobacco plants. Three years later, he was sent to Crimea for a similar reason. Through Chamberland filters, Ivanovsky found an "extremely small infectious agent" caused the disease.
In 1898, Dutch scientist Martinus Beijerinck carried out a similar experiment and found a new infectious agent he named a "virus." Still, he and Ivanovsky mistook it for a toxin produced by bacteria. It wasn't until the invention of electron microscopes in the 1950s that they discovered the true nature of viruses.
 


 Penicillin came from Mold


Before antibiotics, there was no cure for infections such as pneumonia and rheumatic fever.
In 1928, Alexander Fleming, a professor of bacteriology at St. Mary's Hospital in London, found mold could kill harmful bacteria while sorting through his Petri dishes containing Staphylococcus. This discovery led to the development of penicillin, the first true antibiotic.
 


 About 50% of our Oxygen comes from Microbes


You might think plants exclusively produce the air we breathe. Still, you may be surprised that half of the Earth's oxygen supply comes from tiny photosynthesizing creatures called phytoplankton in oceans. Though it is considered the smallest photosynthetic organism, Prochlorococcus contributes 20% oxygen.
 


 Microbes are Found Everywhere


No matter where you are, there will always be microorganisms. These tiny creatures inhabit almost every place on Earth, including extreme environments like volcanic depths, salt flats, deep ocean depths, and areas with little to no oxygen. Like any living thing, each microbe has its geographical preference, so not all types can be found everywhere.
 


 The Flu Killed more people than in World War I


Believe it or not, the Influenza outbreak in 1918 killed more people than in World War I. WWI claimed an estimated 16 million lives, while the epidemic claimed an estimated 50 million people. The Flu severely affected 25% of the U.S. population, cutting the average life expectancy by 12 years.
 


 The Toughest Microorganism can withstand Radiation


The most robust microorganism can withstand extreme levels of radiation. Called Deinococcus Radiodurans, this bacteria's sturdiness is credited to its highly efficient protection against proteome damage. Proteome ensures cell recovery from radiation damage by repairing disintegrated DNA.
This bacterium can also survive acids, vacuum exposure, and lack of water.
 


 Microbes are Slowly Becoming Resistant to Antibiotics


Antibiotics are used to treat infections caused by bacteria, but according to the World Health Organization, antibiotic resistance is rising to alarmingly high levels globally. Antibiotic resistance is attributed to a natural occurrence, but misuse of antibiotic medicine in humans and animals is accelerating the process.
 
Microbiology in Hospitals
Microbiology plays a pivotal part in diagnosing, treating, and preventing infections caused by microorganisms.
Microbiologists are crucial in upholding human health by helping us treat diseases, but when it comes to preventing their spread, sterile processing technicians are the experts. SPTs ensure that all medical equipment and tools are decontaminated and sterilized. They may not work directly with patients, but they lend a hand in keeping them safe and healthy.
To learn more about the role of sterile processing technicians and how to become one, visit Martinson College.
Read More: Telehealth vs. In-Person Visits: Which One to Choose?
 

 

 </description><pubDate>Mon, 06 Feb 2023 22:25:00 -0700</pubDate></item><item><guid isPermaLink="true">http://www.martinsoncollege.com/blog/post/what-is-sterilization</guid><link>http://www.martinsoncollege.com/blog/post/what-is-sterilization</link><title>What is Sterilization?</title><description>Hospitals are legally expected to provide their patients with the utmost care, which includes the proper sterilization of medical tools and equipment to prevent the risk of infection. However, sterilization is no easy task; only individuals who have received sterile processing technician online training from reputable institutions can thoroughly eliminate microbes from medical instruments.
If you are interested in receiving SPT training to become a certified sterile processing technician, you can take some helpful knowledge on sterilization in our infographic below:
Cleaning vs. Disinfecting vs. Sterilizing
It is common for people to assume that cleaning, disinfecting, and sterilizing all mean the same thing and are thus interchangeable. But, when undertaking sterile processing technician training, you&amp;rsquo;ll learn these three terms are different methods.
Cleaning
The process of cleaning involves removing visible dust, dirt, and soil from surfaces, typically with a wipe and soap. Cleaning does not kill or thoroughly remove bacteria and other microbes.
Cleaning is essential before disinfection since leftover soil may inactivate the disinfectant or sterilant. Cleaning is typically done after direct contact with a patient or using non-critical tools such as stethoscopes.
Disinfecting
The process of disinfection involves killing or inactivating bacteria and viruses using products designed specifically for certain microbes. While this method is reliable in eliminating known germs and viruses, it might be inefficient against emerging pathogens.
The effectiveness of disinfection depends on several factors, such as the efficacy of prior cleaning, type of microbial contamination, compatibility of instruments with chemicals, and presence of biofilms.
Sterilizing
The process of sterilization involves destroying or eliminating all microbial life. Professionals such as sterile processing technicians for surgeries and laboratories often carry out this procedure.
Sterilization is performed after precleaning and decontamination. Critical items, including all surgical tools, catheters, and ultrasound probes, must undergo sterilization in the sterile processing department.
 
The Three Main Categories of Medical Devices
While all medical equipment requires thorough sterilization before usage, the level of decontamination or sterilization may depend on the category to which they belong. According to Dr. Earl Spaulding, these are the three main categories:
Non-critical Items
These refer to those that only come in contact with intact skin. Since non-critical items do not penetrate the sterile body cavities or mucus membranes, they require a minimum of a low-level disinfection process.
Examples:

Stethoscopes
Blood glucose meters

Semicritical Items
Semicritical items include those that come in contact with the mucus membranes but not the sterile body cavities. These items require a high-level disinfection process.
Examples:

Endoscopes
Ear/Nose/Throat instruments

Critical Items
Critical items come in contact with the sterile body cavities, requiring sterilization to eliminate microorganisms thoroughly.
Examples:

Syringes
Implants

The Process of Precleaning and Decontamination
Surgical instruments undergo a tedious process before they are declared safe to reuse. An average person cannot perform the sterilization process due to great attention to detail and careful inspection. Because microbial life is difficult to eliminate, sterile processing technicians, follow a series of standard procedures they are vigorously trained to master:

Before anything else, hospitals first sort, inspect, and disassemble soiled instruments.
The soiled instruments undergo precleaning at the point of use. The precleaning may be done through irrigation using distilled water or spraying with gel or a transport foam, often an enzymatic cleaner.
The instruments are then immersed in a detergent solution and brushed manually.
Afterwards, the instruments are rinsed with clean, treated water.
An ultrasonic cleaner may remove residual patient soil if the instrument can tolerate sonication.
Any eligible instruments must undergo additional mechanical disinfection using an automated washer/disinfector.
Once the instruments are thoroughly cleaned after the precleaning and disinfection procedures, they can be sterilized.

How the Sterilization Process is Carried Out
After decontamination, the instruments are sent to the Sterile Processing Department (SPD) for preparation and packing. The items are then carefully inspected and assembled in a set or peel-packed.
During sterilization, the instruments are subject to conditions and chemicals that bacteria, viruses, and other microorganisms cannot survive. There are many methods of sterilization, including:
Autoclaving
Autoclave sterilization is also called steam sterilization.
Steam is the most widely used method for sterilization in the SPD. This method uses a combination of heat, moisture, and pressure to eliminate any microbial life. There are two common autoclaving or steam sterilization processes used based on how air is vented out the threshold and how the steam is vented in:

Gravity Displacement &amp;ndash; this method lets steam in from the top of the autoclave machine and pushes the air out of the bottom. Gravity displacement is the simplest and oldest form of steam sterilization and takes longer than other alternatives. Gravity displacement is ideal for simple tools but ill-suited for complex instruments and other items that the vacuum may damage.
Dynamic Air Removal involves an autoclave machine alternating steam and vacuum pulses or steam pulses and venting to ambient pressure to remove air from the instruments and chamber, allowing steam to penetrate the load. The latter is also called Steam Flush Pressure Pulse (SFPP). Dynamic air removal is the preferred method as it is more efficient and quicker.

Low-Temperature Technologies
Not all instruments are suitable for autoclaves since heat and moisture may damage them. As an alternative, the SPD may instead use the other alternatives under low-temperature technologies:

Ethylene Oxide &amp;ndash; this low-temperature method used to be dominant among other choices, but because it takes longer (1 &amp;ndash; 4.5 hrs.), it has since been replaced by vapor hydrogen peroxide. This method has five stages: preconditioning and humidification, gas introduction, exposure, evacuation, and air-washes. Aeration may add 12 &amp;ndash; 36 more hours.
Vapor Hydrogen Peroxide is the most dominant method to sterilize heat-sensitive equipment and devices. This method involves H2O2 vapor filling the chamber and contacting exposed devices. After sterilization, the vapor is removed and converted to water and oxygen.
Ozone Sterilization &amp;ndash; ozone sterilization is the latest sterilization method. Ozone can destroy any microbe thanks to the additional oxygen atom attached to its molecules while not leaving any toxic emissions and chemical residues.
Liquid Chemical &amp;ndash; is safe and effective for heat-sensitive, semicritical devices.

The Value of Sterile Processing Technicians
The process of sterilization is labor-extensive and does not leave room for mistakes. Despite working in the background, sterile processing technicians are critical in ensuring patient protection by sterilizing hundreds of trays of medical instruments daily.
If you are considering a career in allied health, enroll in courses to become a sterile processing technician. You do not need to possess a degree in tertiary education to join an SPT program, and you will only be spending at least six months until completion. Once you pass the certification program, you are on your way to becoming a valuable member of the healthcare industry.
Choosing a reliable institution for SPTs is a factor in determining how well you&amp;rsquo;ll perform as a future Sterile processing technician. Begin your journey today by enrolling in Martinson College&amp;rsquo;s quality accelerated adult and online programs!
 
 

 

 </description><pubDate>Tue, 31 Jan 2023 18:34:00 -0700</pubDate></item><item><guid isPermaLink="true">http://www.martinsoncollege.com/blog/post/top-5-short-courses-to-try-in-healthcare</guid><link>http://www.martinsoncollege.com/blog/post/top-5-short-courses-to-try-in-healthcare</link><title>Top 5 Short Courses to Try in Healthcare</title><description>Pursuing a career in the medical industry can be intimidating because of all the requirements to fulfill in your studies. Most professions also take years of education and training before employers consider them for a role in hospitals.
But don't be discouraged; you can still pursue a medical profession thanks to short healthcare sources.
Short healthcare courses enable anyone to work in the medical sector without spending tremendous time and money on higher education. Many of these even offer competitive salaries and can open rewarding pathways.
 

 

 
The following are our recommended short-term courses in medical field schools that do not require years of academic commitment:
1. Surgical Technology Certificate
By taking a surgical technology certificate, you can make a career assisting surgeons and other medical professionals. Your responsibilities revolve around preparing the patients' operating rooms and equipment for upcoming surgical operations.
Many programs under the surgical technology certificate are accredited by CAAHEP or the Commission on Accreditation of Allied Health Education Programs. According to the Bureau of Labor Statistics, this field is expected to grow tremendously depending on location and experience.
Demand for surgical techs can increase, and plenty of work options are available in various specialized areas. The average time of completion for this program is 10-14 months.
2. Medical Records Coder
Taking a medical records coder program can provide opportunities to work as a medical billing and coding specialist. Your duties will include rendering patient healthcare services into an alphanumerical code, accurately translating diagnosis, operations, and equipment use.
The job is in high demand and offers flexible work hours on top of training and immediate work. You'll learn plenty of knowledge in medical terminologies, physiology, health data management, medical law, and many more, but you need to be meticulous.
The medical records coder certificate program can be completed within 8-13 months.
3. Pharmacy Technician Certificate
You can become an assistant to licensed pharmacists by taking the pharmacy technician certificate. Your job may include various pharmacy-related functions like administrative and bookkeeping roles, assisting customers, cleaning the pharmacy area, filling customer orders, and inventory control.
You'll also learn mathematical skills for pharmaceutical practices and the utilization of software programs from professionals in the field.
The average time for completing this program may take around 8-12 months.
4. Nursing Assistant
Maybe you thought of becoming a nurse once but decided not to continue because you think you cannot dedicate yourself to such profession. Fortunately, you can still work alongside nurses as a nursing assistant.
Unlike the primary profession, all you need to become a nursing assistant is a skillset acquired from a certification program.
As a nursing assistant, you help nurses in their work, such as managing tools and equipment, administering medication, recording patient details, preparing patient rooms, among others. Completion of a nursing assistant certification program is around 6-8 months.
5. Sterile Processing Technician
All allied health professionals contribute to the efficiency of the medical industry. But in terms of sanitation, sterile processing technicians (SPTs) may be considered the heart of patient safety.
Taking an SPT program allows you to play the crucial role of preventing the spread of infection across patients in hospitals and clinics.
As a sterile processing technician, you are tasked with many responsibilities, including sterilization and decontamination of medical equipment and tools, organization, assembling, and distribution of supplies, and maintaining inventory. There are many well-paying job opportunities in store, and the demand is constantly on the rise.
Completing your training in a sterile processing technician program won't take long. You only need to dedicate eight weeks to three months of study and training before you can take the exam on the way to becoming a fully-fledged SPT.
Interested in becoming a sterile processing technician? Martinson College offers quality, accelerated adult programs for sterile processing and other related courses. To schedule an appointment, call (888)625-0059.
Read More: Short Certificate Programs the Pay Well</description><pubDate>Mon, 30 Jan 2023 23:37:00 -0700</pubDate></item></channel></rss>