For Healthcare Providers
H. Sandoval-Insausti, R.F. Pérez-Tasigchana, E. López-García, et al.J Gerontol A Biol Sci Med Sci 2016;00:1–6 This study examined the association of protein and other macronutrient intake with the risk of frailty in older adults. |
A. Clegg, C. Bates, J. Young, R.Ryan, et al.Age and Ageing 2016;0:1-8 International guidelines recommend routine identification of frailty to provide evidence-based treatment, but currently available tools require additional resource. |
J.M. Hofstede, N.J. Raijmakers, L.S. van der Hoek et al.Palliat Med. 2016 Jan 26. pii: 0269216315627123. [Epub ahead of print] The aim of this paper is to compare the quality of palliative care provided to patients with cancer, patients with organ failure and frail patients and their relatives. |
M.S. Fragala, D.E. Alley, M.D. Shardell et al.JAGS 2016;64:144–150 This study aimed at comparing the relative predictive power of handgrip and leg extension strength in predicting slow walking. Results suggest that handgrip strength may be an adequate measure to predict physical function whereas leg extension strength is only a slightly better predictor of slow gait speed. |
R.A. Merchant, S. Banerji, G. Singh et al.J Am Med Dir Assoc. 2016;17(1):65-70 Older adults are known to compensate well for declining physiological reserve through environmental modification and posture adaptation. This study aimed to analyze and identify significant posture adaptation in older adults that is required to maintain gait speed in the face of increasing vulnerability. |
D.R. Kirn, K.F. Reid, C. Hau et al.J Gerontol A Biol Sci Med Sci. 2016;71(5):632-6 The purpose of this study is to establish the minimal clinically important improvement (MCII) and substantial improvement (SI) for leg-extensor power and muscle contraction velocity in mobility-limited older adults. This is the first study to establish a clinically meaningful improvement of leg-extensor power (9%-10%) and velocity (6%-7%) in mobility-limited older adults |


