Utilizing Qr Code Technology for Emr.

Automation and interconnections with information in their healthcare environments need increasing support, security measures need to be implemented without disrupting the workflow of approved users, costs associated with data breaches and damage to their reputation need to be avoided. IT budgets constraints also impose limitations in many healthcare institutions. Compliance with security and privacy related regulations in healthcare and making sure what policies and standards should be implemented requires solutions that clearly address security challenges so that they can be integrated into a healthcare institution’s existing infrastructure and business practice. As data is transmitted across countless environments and is stored on an ever-expanding grouping of endpoint and storage devices such as computers, laptops, and removable storage devices, it will become evident that there will be a need for strong encryption. Under the HITECH Act and comparable state laws, encrypted data that is received or acquired by unauthorized persons through a lost or stolen electronic device or an errant email, is typically not considered a breach. However, healthcare institutions need to determine the level of encryption they should adopt. For example, a hospital could decide where there is the greatest risk of information loss (patient data in email messages or on storage drive) that is not on internal

Securing larger volumes of data than before, health care providers must be able to adapt to new methods of data storage and access of patient records. Security breaches in health care organizations is lost or stolen from unencrypted devices and media where the provider is using to retrieve records. As more health providers continue to use mobile devices to access pertinent information from electronic medical records systems the chances for breach increases so dramatically. (Rogers,

Another study was conducted on the privacy impact of RFID tags used in medical facilities. The primary concern here is that RFID tags can be used by an unauthorized user. The perpetrator can solicit private information or gain access to medical history records of a patient. Juels (06) offered a novel access control mechanism. A technical solution that involved the use of encryption and symmetric key was suggested.

The other technology applied in the healthcare sector is that of applying the connected medical devices. These devices have been applied in making sure that patient information is picked up and automatically transmitted to other connected computers for analysis and easy treatment (Desourdis, 2009). The devices usually allow the patients to see how they are fairing in real-time as well as giving them an opportunity to monitor their own lives on real-time basis. The other important technology that is important in the merged healthcare system is the of installing electronic health record systems that are hosted on physical servers with few healthcare entities by applying cloud-based systems to make sure that data security in the

Information security so important in healthcare because being able to share data digitally holds a lot of potential for doctors, nurses and clinicians to send and receive content fast and effectively. Although this is a great thing, on one hand, it is also dangerous because patient data and other sensitive information are even more at risk of being stolen, exposed or accessed by unauthorized parties. Because of this, security must be a top priority for any medical organization today and for the future. In order to ensure patient data will be secure, healthcare facilities should implement safeguards on data information.

When the Obama government pushed for the automation of Electronic Medical Record (EMR), hospitals and private practices were required to follow the government mandate to avail of the incentives and at the same time to qualify for Medicare and Medicaid reimbursements. Moving from paper to electronic records was a monumental tasks not only in the implementation of the software but also in training all hospital providers to properly use the EMR.

Health information technology privacy and security standards are essential to maintaining interoperability and security in the exchange of health information. Standards provide a common language between different systems that need to share information (Himss.org, 2016). These standards are relevant to healthcare providers to gain access to health records from another facility as to streamline patient care. A more effective and efficient way for a provider to obtain information is to have a provider log- into a device to see results. In gaining access to health information, it is critical to maintaining security. With easy access to information come concerns for securing that information. Security standards provide protection over electronic protected health information.

Dexit should target all merchants that accept Debit and Credit transactions in the geographic areas in which electronic usage is most prevalent. The culture of using electronic payment is already established in Canada and RFID will be more readily accepted in the areas where the most electronic payments occur. In areas outside of the three metropolitan locations mention, Dexit should target younger consumers who will be more willing to enroll and replenish the accounts via the internet. All consumers who engage in high frequency low dollar amount transactions should be targeted as well because the premise of the technology is ultimately to find a safer, faster alternative to

The Electronic Medical Records (EMR) is a secure source of information that give clinicians real-time access to a variety of patient health information. It is a new technology in the health and hospital information field where clinical, demographic, and management information is entered in a electronic record. EMR information can be accessed such as patient history, billing or insurance data, allergies, immunizations, medications, orders, laboratory tests, diagnostic results, and images with just pushing a few keystrokes. It is an application technology that has enormous potential to enhance the efficiency and effectiveness of health care through decreased medical errors, increased preventative care and improved detection and treatment (Fiato, K. A., 2012).

For example, in Fitbits, users are easily able to access their health data, such as number of steps taken, number of calories burned, etc. In comparison, for pacemakers, patients are often not allowed to access their data at all, thereby restricting access of personal data to just medical professionals and data collectors. When considering that the user in question cannot access their own private data, regulations are imperative in preventing such data from reaching the wrong hands. In this field, medical devices use encryption to deter hackers or other unwanted visitors from accessing sensitive data (Eramo), but as seen from Mark Gasson, it is not guaranteed to work. By infecting an RFID chip in his hand with a virus, Gasson determined that the virus located in his hand was able to infect external systems (Cellan-Jones). Although medical devices proclaim to be secure, the risk of a virus from another piece of technology infecting these devices is high, with extremely serious consequences. It is imperative to continue pressing for answers regarding the secureness of medical devices and push for more knowledge regarding third party servers that may use medical data for reasons other than

Securing the healthcare information is achieved by taking preventive measures. The importance of health care data security is a delicate issue and it is however important that basic procedures and structure need to be in place to protect patient’s information. Attacks on the mobile devices usually occur through the individuals of the organization by compromising integrity, confidentiality, and availability of the data which are the three main security goals. Manipulating the patient’s medical history by gaining access over the network through mobile devices leads to inappropriate treatment of the patient. If the attacker intrudes the Health Care System, he can take control over the servers that operates the medical devices and disable them

By 2030, we can predict that traditional paper and manually recorded medical records will be ancient history and that universal technical systems will be in place. EHRs (electronic health records) systems are collections of digital medical records kept by health care facilities and affiliates such as hospitals, doctor's offices, and insurance companies (Lynn, 2011). The intention of the EHR system is to extend health information technology into the realm of patient record keeping and automated healthcare processes (Kumar & Aldrich, 2010). A patient's entire medical history can be converted to digital format and stored securely for use by various entities over time. EHRs eliminate vast paper trails condensing pertinent information into electronic form (Obama, 2009). Records are easily retrievable and enable patient's to navigate through the healthcare system in a safer and more efficient manner (Lynn, 2011). EHRs allow for a higher level of standardization, security and improved privacy for patient information.

This research article examines the security concerns of using mobile technology systems in health care institution. Various methods of ensuring privacy and security of patient’s electronic medical information are addressed. This high quality article is relevant for present day mobile security issues. The authors utilize a host of credible references in the health care and information technology fields.

Based on recent trends with growth in the healthcare industry security systems, I would recommend that ABC Healthcare implement mobile device encryption (smartphones/tablet), mobile devices management system, two-factor authentication and digital signature system in order to enhance security. Access and audit controls ensure how healthcare professionals and other employees access sensitive data such as Electronic Protected Health Information (ePHI),

Submitted in partial fulfillment of the requirements for the degree of Bachelor of Engineering in Computer Engineering