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Cancer Informatics: Needs and Challenges in Cancer Research

Primary Health Care: Open Access

ISSN - 2167-1079

Perspective - (2021) Volume 11, Issue 12

Cancer Informatics: Needs and Challenges in Cancer Research

Thuan Tran*
 
*Correspondence: Thuan Tran, Department of Oncology, Ho Chi Minh City Oncological Hospital, Vietnam, Email:

Author info »

Abstract

Oncology practises confront numerous hurdles in designing and implementing an informatics strategy, whether it is shifting from paper to electronic records or attempting to harness data from existing systems for outcome studies. With the rising costs of oncology treatments and anticipated changes in reimbursement laws, such as the necessity for evidence to back physician judgments, collecting data on treatment decisions and treatment efficacy will become critical to running a successful programme. This study assesses the current state of oncology informatics systems and focuses on building an informatics strategy to address the problems posed by anticipated changes in reimbursement rules as well as medical and information technology.

Keywords

Cancer research • Oncology • Informatics • Healthcare • Medicine

Introduction

Biomedical and health research and development require the use of informatics tools. Cancer research, like most scientific disciplines, is dealing with an avalanche of data that is becoming increasingly difficult to collect, keep, access, analyse, and exchange. To facilitate personalised medicine approaches to cancer prevention and treatment (e.g., tailoring treatment based on an individual patient's genetic makeup as well as that of the tumour), and to allow for more rapid learning from patient experiences, there is a particular need to integrate research and clinical data [1].

Oncology practises confront numerous hurdles in designing and implementing an informatics strategy, whether it is shifting from paper to electronic records or attempting to harness data from existing systems for outcome studies. With the rising cost of oncology treatments and anticipated changes in reimbursement standards, such as the demand for evidence to back physician judgments, collecting data on treatment decisions and treatment efficacy will become critical to running a successful programme.

In the speciality healthcare software sector, the capacity to quantify care efficacy and identify actionable areas for improvement has proven elusive. Oncology EMRs are primarily workflow-centric, concentrating on a set of tasks rather than supporting real-time decision-making and thorough outcomes gathering [2-4].

Cancer treatment necessitates long-term patient management, which can last decades. Each patient's case may contain a substantial quantity of data, ranging from test findings to medicinal administration records, clinical evaluation notes, and insurance and billing records, among other things. As a result, there is a plethora of data on diagnosis, treatment, and results that has been collected over time, but much of it is only on paper. For data input, training, and maintenance, switching from paper to an electronic medical record system, or simply supplementing paper records with an EMR, requires a significant amount of time and personnel [4].

Oncology information systems must enable for the collecting of relevant data for today's medical practises as well as the incorporation of future medical breakthroughs. As technology advances, more personalised medicine with rapid feedback systems will become available. It's critical for an electronic oncology system to be able to connect with these technologies in order to diagnose therapy response and, when appropriate, incorporate new knowledge into standard of care. Maintaining accurate and full patient information will require interoperability with new clinical instruments and systems [4,5].

The needs of today's oncology practices are met by informatics

There are a number of systems that specialise on various duties in today's healthcare information technology environment. Some technologies can be employed in oncology practises since they are suitable for any type of ambulatory setting. Only a few technologies, however, have been created expressly for the cancer field. Systems used with oncology treatment equipment that rely on integrated software to control and support radiotherapy and infusion administration are an example of the latter [5].

The following are the categories of informatics technologies that assist oncology business practise and patient medical records:

• Systems for Managing Practices

• Systems for Electronic Medical Records

• Clinical Decision-Making Software

• Outcome Studies Authoring Clinical Standards of Care

Management of Clinical Trials

The formulation of an oncology informatics strategy must begin with an examination of systems in terms of achieving business demands and objectives.

References

  1. Miriovsky, B. J., et al. “Importance of health information technology, electronic health records, and continuously aggregating data to comparative effectiveness research and learning health care.”J Clin Oncol: Official J American Soc Clin Oncol30.34(2012):4243-4248.
  2. Handel, D.A., et al. “Using information technology to improve the quality and safety of emergency care.”Acad Emerg Med: Official J Soc Acad Emerg Med18.6 (2011):e45-51.
  3. Meier, C. “A role for data: an observation on empowering stakeholders.”American J Prevent Med44.1(2013):S5-11.
  4. Goossen, W. “Representing knowledge, data and concepts for EHRS using DCM.”Studies Health Technol Informat169(2011):774-778.
  5. Weidler, E.M., et al. “Facilitators and Barriers to Implementing Standardized Outcome Measurement for Children With Cleft Lip and Palate.”Cleft Palate-craniofacial J Official Pub American Cleft Palate-Craniofacial Assoc58.1(2021): 7-18.

Author Info

Thuan Tran*
 
Department of Oncology, Ho Chi Minh City Oncological Hospital, Vietnam
 

Citation: Tran, T. Cancer Informatics: Needs and Challenges in Cancer Research. Prim Health Care, 2021, 11(12), 417.

Received: 15-Nov-2021 Published: 28-Dec-2021

Copyright: © 2021 Tran, T. This is an open-access article distributed under the terms of the Creative Commons Attribution License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original author and source are credited.