Older people with confused behavior, have behavioral problems due to dementia, mental problems or social problems. For the Healthcare Assistant (HA) in district nursing, it is a daily challenge to care for older people with confused behavior. Aim of this research is to achieve an insight in the strategies the HA uses to deal with the daily care for older people with confused behavior. It is also the aim to have insight in factors which contribute to the daily care in a positive or negative way. Method: a qualitative explorative research. 17 HA’s in district nursing participated in semi-structured interviews. All respondents had experience with caring for older people with confused behavior. The most important influencing factors are the experienced relationship between HA and the client and the experienced support by the team. Particularly behavioral problems due to mental problems can impede a relationship with the client. Further research is recommended to study the level of knowledge and competences of all levels of employees in district nursing.
MULTIFILE
Discussions about the importance of the built environment for healthcare delivery extend at least as far back as Hippocrates 1 (400 BC). The iconic Florence Nightingale (1859) also strongly believed in the influence the indoor environment has on the progress of disease and recovery. Today, the role of the built environment in the healing process is of growing interest to healthcare providers, environmental psychologists, consultants, and architects. Although there is a mounting evidence 1 linking healthcare environments to health outcomes, because of the varying quality of that evidence, there has also been a lack of clarity around what can and cannot be achieved through design. Given the ageing of society and the ever increasing numbers of persons with dementia in the Western World, the need for detailed knowledge about aged care environments has also become increasingly important. The mental and physical health state of these persons is extremely fragile and their needs demand careful consideration. Although environmental interventions constitute only a fraction of what is needed for people with dementia to remain as independent as possible, there is now sufficient evidence (2, 3) to argue they can be used as a first-line treatment, rather than beginning with farmalogical interventions.
Understanding sludge rheology and optimizing equipment performance is crucial for energy efficiency in wastewater treatment plants (WWTPs). This study examined sludge rheology after thermal hydrolysis pretreatment (THP) at 60, 80, and 120 ◦C for 2 h, followed by anaerobic digestion (AD) at 37 ◦C for 20 days, and assessed impacts on pump and agitator performance. Post-treatment, sludge showed reduced viscosity and improved flowability, indicated by changes in Herschel-Bulkley parameters, enhancing pump and agitator efficiency, particularly at 120 ◦C. These rheological improvements were correlated to the solubilization of sludge components after THP and solids reduction after AD, highlighting the interconnectedness of rheology and treatment outcomes. Despite high heat demands, an energy balance showed that THP scenarios, especially at 120 ◦C, had lower energy requirements for pumps and agitators, leading to energy savings without increased heat consumption. These findings underscore the influence of rheological changes in improving energy efficiency in WWTPs.
Dit project richt zich op de ontwikkeling van de biotechnologische en chemische procesvoering om op basis van mycelium een alternatief voor leer te produceren. In vergelijking met leer is het voordeel van mycelium dat geen runderen nodig zijn, de productie kan plaatsvinden onder industriële condities en met gebruik van reststromen, de CO2 uitstoot alsook hoeveelheid afval verlaagd wordt, en het gebruik van toxische stoffen zoals chroom wordt vervangen door biobased alternatieven. In het project zullen de procescondities worden bepaald die leiden tot de vorming van optimaal mycelium. Daartoe zullen twee verschillende schimmels worden gekweekt in bioreactoren bij de Hogeschool Arnhem Nijmegen (HAN), waarbij specifiek de effecten van de procescondities (temperatuur, pH, shear, beluchting) en de samenstelling van het kweekmedium op groei van het mycelium en materiaal eigenschappen zullen worden onderzocht. De meest optimale condities zullen vervolgens worden opgeschaald. Op het op deze wijze verkregen materiaal zal Mylium BV een aantal nabehandelingsstappen uitvoeren om de sterkte, elasticiteit, en duurzaamheid van het product te vergroten. Daartoe worden biobased plasticizers, cross-linkers en/of flexibility agents gebruikt. Het resulterende eindproduct zal middels specifiek fysieke testen vergeleken worden met leer alsook worden voorgelegd aan mogelijke klanten. Indien beide resultaten positief zijn kan het betreffende proces na het project verder worden opgeschaald voor toepassing naar de markt.
This proposal is a resubmission of an earlier proposal (Dossier nr: GOCH.KIEM.KGC02.079) which was not approved because of the too ambitious planning. As advised by the commission, the focus is kept only on the recycling of the mattress cover. The Netherlands has 180,000+ waterproof mattresses in the healthcare sector, of which yearly 40,000+ mattresses are discarded. Owing to the rapidly aging population it is expected to increase the demand for these waterproof mattresses in the consumer sector as well. Considering the complex nature of functional mattresses, these valuable resources are partly incinerated. To achieve a circular economy, Dutch Government aims for a 50% reduction in the use of primary raw materials in five key economic sectors including ‘consumer products’ by 2030. Within the scope of this research, Saxion together with partners (CFC BV, Deron BV, MRE BV & Klieverik Heli BV) will bring emphasis on Recycling (sustainable chemistry) of mattress covers. Other aspects such as reuse and re-designing are beyond the scope of this project proposal, for which a bigger consortium will be built during the course of this project. A case under study is a water-impermeable mattress cover made of 100% polyester with polyurethane (PU) coatings. The goal is to enable the circular use of textiles with (multilayer) ‘coatings’, which are not recyclable yet. These ‘coatings’ comprise functional coatings as well as adhesion layers. Therefore, novel triggerable molecular systems and the corresponding recycling processes will be developed. The coatings will be activated by a specific trigger (bio)-chemical solvation, heat, pressure, humidity, microwave, or combination of thereof. The emphasis is to develop a scalable coating removal process. Learnings will be used to build larger (inter)-national consortia to develop multiple industry closed-loop solutions required for 100% mattress circularity with desired functionality. The generated knowledge will be used for education at Saxion.