A shared journey: evaluating a patient-assessed measure of self-management of chronic conditions in an Australian setting.

Background Patient Assessment of Care in Chronic Conditions (PACIC+), included in some Australian guidelines, has been shown reliable for measuring patient engagement and perception of their care in primary care settings. Various studies have focussed on PACIC+ use in specific conditions. This study aims to expand PACIC+ to measure patient empowerment to self-manage their chronic condition and validate it in the broader Australian primary care population. This study aims to evaluate internal consistency and reliability of PACIC+ and six new supplementary items proposed to assess patient wellbeing and empowerment to self-manage their chronic condition. Methods A repeated-measures correlation design study assessed the expanded PACIC+ over three time-points. Particpants were patients with at least one chronic disease, referred by consultant physician, or recruited by advertisement posters in hospital clinic areas. Results PACIC+ (26-item) had acceptable internal consitency (Cronbach's alpha 0.96). Test-retest reliability (Time-1 and 2, P r (48)=0.43; and New supplementary items: Confidence r (48)=0.54; Understanding r (48)=0.62; Support r (48)=0.43; Overall Health r (48)=0.42; Overall Health Change r (48)=-0.31, P =0.03; and Acute Episodes of Care in 1-month r (48)=0.42, P Conclusions The expanded PACIC+ is an improved psychometric tool providing for the patient's voice in a shared health journey. It is a valid, reliable tool to monitor and measure self-management of chronic conditions in Australian population clinic and primary healthcare settings.

Active forest stewardship benefits priority birds in the New Jersey Pine Barrens.

Fire suppression has negatively impacted thousands of acres of private and public lands in the United States. As a case study, the New Jersey Pine Barrens (NJPB) are a disturbance driven ecosystem that is experiencing serious ecological implications due to a loss of traditional forest thinning activities such as harvesting for forest products or thinning for wildfire fuel-load reduction measures coupled with a long-standing philosophy of fire suppression and dormant-season prescribed burning. Dense closed-canopy forest conditions, dissimilar to historic open-canopy forests of the NJPB, have reduced abundance and diversity of certain flora and fauna, including regionally imperiled breeding birds. In recent years, active forest stewardship (e.g., thinning, clear-cutting, and burning) has occurred on private and some public lands within the NJPB; however, the impact of such management on breeding birds is unclear due to a paucity of research on this subject within the NJPB. During 2012, 2013, 2016, and 2017, we conducted repeat-visit point counts (n = 1,800) for breeding songbirds across 75 control and 75 treatment sites within the NJPB to assess the influence of forest structure at three strata levels (groundcover, midstory profile, and canopy) on breeding bird communities. Specifically, we constructed a hierarchical community abundance model within a Bayesian framework for Bird Conservation Region (BCR) 30 priority upland birds (n = 12) within three species suites: Forested Upland, Scrub-Shrub (or Young Forest), and Grassland. At the community level, we found a negative relationship between bird abundance and live tree basal area. At the BCR 30 suite level, we found no relationship between Forested Upland suite-level abundance and any of the measured covariates; however, we found a negative relationship between percentage of woody groundcover and Scrub-Shrub suite-level abundance, and negative relationship between horizontal visual obstruction at 2 m above ground level and Grassland suite-level abundance. Furthermore, the two latter species suites exhibited a strong negative relationship with basal area. We recommend active forest stewardship that specifically targets opening the canopy to achieve basal areas between ~0-15 m2/ha via selective thinning, shelter cutting, and small-scale clear cutting. Mechanical treatment and prescribed burning would produce such conditions and have the added benefit of reducing fuel loads across this ~4,500 km2 landscape as well as assisting in carbon defense strategies for the region.