TY - JOUR
T1 - The return on investment of implementing a continuous monitoring system in general medical-surgical units
AU - Slight, Sarah P.
AU - Franz, Calvin
AU - Olugbile, Michael
AU - Brown, Harvey V.
AU - Bates, David W.
AU - Zimlichman, Eyal
PY - 2014/8
Y1 - 2014/8
N2 - Objectives: To evaluate the cost savings attributable to the implementation of a continuous monitoring system in a medical-surgical unit and to determine the return on investment associated with its implementation. Design: Return on investment analysis. Setting: A 316-bed community hospital. Patients: Medicine, surgery, or trauma patients admitted or transferred to a 33-bed medical-surgical unit. Interventions: Each bed was equipped with a monitoring unit, with data collected and compared in a 9-month preimplementation period to a 9-month postimplementation period. Measurements and main results: Two models were constructed: a base case model (A) in which we estimated the total cost savings of intervention effects and a conservative model (B) in which we only included the direct variable cost component for the final day of length of stay and treatment of pressure ulcers. In the 5-year return on investment model, the monitoring system saved between $3,268,000 (conservative model B) and $9,089,000 (base model A), given an 80% prospective reimbursement rate. A net benefit of between $2,687,000 ($658,000 annualized) and $8,508,000 ($2,085,000 annualized) was reported, with the hospital breaking even on the investment after 0.5 and 0.75 of a year, respectively. The average net benefit of implementing the system ranged from $224 per patient (model B) to $710 per patient (model A) per year. A multiway sensitivity analyses was performed using the most and least favorable conditions for all variables. In the case of the most favorable conditions, the analysis yielded a net benefit of $3,823,000 (model B) and $10,599,000 (model A), and for the least favorable conditions, a net benefit of $715,000 (model B) and $3,386,000 (model A). The return on investment for the sensitivity analysis ranged from 127.1% (25.4% annualized) (model B) to 601.7% (120.3% annualized) (model A) for the least favorable conditions and from 627.5% (125.5% annualized) (model B) to 1739.7% (347.9% annualized) (model A) for the most favorable conditions. Conclusions: Implementation of this monitoring system was associated with a highly positive return on investment. The magnitude and timing of these expected gains to the investment costs may justify the accelerated adoption of this system across remaining inpatient non-ICU wards of the community hospital.
AB - Objectives: To evaluate the cost savings attributable to the implementation of a continuous monitoring system in a medical-surgical unit and to determine the return on investment associated with its implementation. Design: Return on investment analysis. Setting: A 316-bed community hospital. Patients: Medicine, surgery, or trauma patients admitted or transferred to a 33-bed medical-surgical unit. Interventions: Each bed was equipped with a monitoring unit, with data collected and compared in a 9-month preimplementation period to a 9-month postimplementation period. Measurements and main results: Two models were constructed: a base case model (A) in which we estimated the total cost savings of intervention effects and a conservative model (B) in which we only included the direct variable cost component for the final day of length of stay and treatment of pressure ulcers. In the 5-year return on investment model, the monitoring system saved between $3,268,000 (conservative model B) and $9,089,000 (base model A), given an 80% prospective reimbursement rate. A net benefit of between $2,687,000 ($658,000 annualized) and $8,508,000 ($2,085,000 annualized) was reported, with the hospital breaking even on the investment after 0.5 and 0.75 of a year, respectively. The average net benefit of implementing the system ranged from $224 per patient (model B) to $710 per patient (model A) per year. A multiway sensitivity analyses was performed using the most and least favorable conditions for all variables. In the case of the most favorable conditions, the analysis yielded a net benefit of $3,823,000 (model B) and $10,599,000 (model A), and for the least favorable conditions, a net benefit of $715,000 (model B) and $3,386,000 (model A). The return on investment for the sensitivity analysis ranged from 127.1% (25.4% annualized) (model B) to 601.7% (120.3% annualized) (model A) for the least favorable conditions and from 627.5% (125.5% annualized) (model B) to 1739.7% (347.9% annualized) (model A) for the most favorable conditions. Conclusions: Implementation of this monitoring system was associated with a highly positive return on investment. The magnitude and timing of these expected gains to the investment costs may justify the accelerated adoption of this system across remaining inpatient non-ICU wards of the community hospital.
KW - cost-benefit analysis
KW - healthcare economics
KW - hospitals
KW - investment
KW - monitoring
KW - vital signs
UR - http://www.scopus.com/inward/record.url?scp=84904736038&partnerID=8YFLogxK
U2 - 10.1097/CCM.0000000000000340
DO - 10.1097/CCM.0000000000000340
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C2 - 24717454
AN - SCOPUS:84904736038
SN - 0090-3493
VL - 42
SP - 1862
EP - 1868
JO - Critical Care Medicine
JF - Critical Care Medicine
IS - 8
ER -