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This article introduces a cartography tool to help social workers work with and support family caregivers. This tool aims to determine (1) which caregivers are likely to need additional support during bereavement and (2) what resources the caregiver has that care teams can rely on for decision-making and planning. The purpose of this article is to present a preliminary assessment of the cartography based on the feedback collected from potential users regarding the tool's content and usage. [ABSTRACT FROM AUTHOR]

Introduction: High energy expenditure by healthy older individuals has numerous benefits, and housework and exercises done at home are among the most common physical activities. However, there is little knowledge about how characteristics of the urban built environment could impact energy expenditure for moderate and vigorous daily activities. This study characterizes accessibility and a number of physical barriers, investigates the relationship between home environmental press and energy expenditure at home, and identifies the environmental characteristics that could explain variability in energy expenditure. Method: The home energy expenditure of 35 healthy older women was determined from retrospective geolocation data and a multi-sensor device measuring energy expenditure (SenseWear Armband®). Barriers at home were identified with the Housing Enabler. Results: The median was 51 environmental barriers with only 7.5 barriers between the 1st and 3rd quartile, on a total of 161 possible environmental barriers of the Housing Enabler. The number of home environmental barriers was positively and moderately correlated with energy expenditure at home (r s = 0.47, p = 0.01). No characteristic of the home built environment was identified that could explain the variability in energy expenditure. Conclusion: Future research should identify the characteristics of the home associated with a lower or higher energy expenditure according to the characteristics of the person. This could be carried out by occupational therapists for the purpose of preventing deconditioning, energy management, promotion of social participation, recommendations for home adaptations or relocation. [ABSTRACT FROM AUTHOR]

Background: Recently, much attention has been given to the use of inertial sensors for remote monitoring of individuals with limited mobility. However, the focus has been mostly on the detection of symptoms, not specific activities. The objective of the present study was to develop an automated recognition and segmentation algorithm based on inertial sensor data to identify common gross motor patterns during activity of daily living.Method: A modified Time-Up-And-Go (TUG) task was used since it is comprised of four common daily living activities; Standing, Walking, Turning, and Sitting, all performed in a continuous fashion resulting in six different segments during the task. Sixteen healthy older adults performed two trials of a 5 and 10 meter TUG task. They were outfitted with 17 inertial motion sensors covering each body segment. Data from the 10 meter TUG were used to identify pertinent sensors on the trunk, head, hip, knee, and thigh that provided suitable data for detecting and segmenting activities associated with the TUG. Raw data from sensors were detrended to remove sensor drift, normalized, and band pass filtered with optimal frequencies to reveal kinematic peaks that corresponded to different activities. Segmentation was accomplished by identifying the time stamps of the first minimum or maximum to the right and the left of these peaks. Segmentation time stamps were compared to results from two examiners visually segmenting the activities of the TUG.Results: We were able to detect these activities in a TUG with 100% sensitivity and specificity (n = 192) during the 10 meter TUG. The rate of success was subsequently confirmed in the 5 meter TUG (n = 192) without altering the parameters of the algorithm. When applying the segmentation algorithms to the 10 meter TUG, we were able to parse 100% of the transition points (n = 224) between different segments that were as reliable and less variable than visual segmentation performed by two independent examiners.Conclusions: The present study lays the foundation for the development of a comprehensive algorithm to detect and segment naturalistic activities using inertial sensors, in hope of evaluating automatically motor performance within the detected tasks. [ABSTRACT FROM AUTHOR]

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Prolonged headache following dural puncture is an uncommon problem that may occur after a spinal tap, often as a complication of epidural anaesthesia. This problem has also been described after long-term epidural or spinal anaesthesia, myelography or spinal surgery. A case of prolonged postdural puncture headache following lumbar nerve root decompression is described in a healthy young man. No other cause could be found either clinically or with the aid of scanning by computerized tomography or magnetic resonance imaging techniques at the spinal level involved. The symptoms were successfully treated with an epidural blood patch performed seven months following the original surgical operation. [ABSTRACT FROM AUTHOR]