542 research outputs found
A sinking heart: Whose problem is it? Under fives work in the surgery of a general practitioner.
Book Synopsis.
This volume is the result of over twenty years of therapeutic interventions with families within the Tavistock Clinic's Under Fives Service. It describes in detail the process of understanding young children's communications and behaviour and the dynamics of family relationships within the consulting room in a lively, accessible style. It covers common themes in work with young children such as disruptive, angry behaviour, separation and sleep difficulties, and problems in the parent/couple relationship. This book is essential reading for all early years professionals hoping to gain a greater understanding of the technique, observational skills and theory which underlie a psychodynamic approach to work with the under fives
Ecological studies of Clostridioides difficile and COVID-19 infection with the application of space-time risk models
Date on title page is 2021. Degree awarded in 2022.Infectious diseases continue to pose major global health threats. With the recent devastation
from the COVID-19 pandemic and growing concerns of healthcare-associated
infections (HAIs), there is a worldwide requirement for stringent techniques to monitor
and understand the key drivers for infections. Infectious diseases have an inherent spatial
dimension due to the contagious nature of viruses and bacteria. This thesis aims to
explore the use of spatial and spatio-temporal techniques applied to infections, specifically
Clostridiodies difficile infection (CDI) and COVID-19, to identify risk factors at
an ecological population-based level. A mixture of open-sourced and routinely collected
data, at different spatial scales, were used to understand the surveillance capacities of
observational public health data.
Antimicrobial prescribing and stewardship have been a global focus in the last decade as
concerns have grown with emergent novel antibiotic-resistant infections. CDI has been
shown to have a well-defined association with certain broad-spectrum antibiotic classes
and other environmental factors, however, there is a gap in the literature aiming to
understand these relationships ecologically and spatially. The main focus of this thesis
was to use spatio-temporal models to investigate spatial risk factors of CDI incidence,
such as GP antimicrobial prescribing, in Scotland and Wales. Similar spatial techniques
were then applied to investigate the spatial distribution of COVID-19 testing during the
first wave of the 2020 epidemic in Scotland. The relevant spatial and spatio-temporal
models applied throughout this thesis were initially discussed in Chapter 2.
The spatial distribution of Scottish GP antibiotic prescribing rates, from 2016 to 2018,
was investigated in Chapter 3 using spatial point-location correlation methods. Risk
factors of increased GP antibiotic prescribing were explored, showing GP practice demographic information as key drivers of increased antibiotic prescribing. These analyses
were followed by an exploration of Scottish CDI incidence data, from 2014 to 2018, at a
small areal level (intermediate zones (IZ)), to understand spatial auto-correlation and
temporal trends of CDI incidence in Chapter 4. Population demographic risk factors,
as highlighted in the literature, were obtained at the same spatial scale and assessed as
ecological risk factors of CDI incidence using conditional autoregressive (CAR) models.
The next phase of this thesis then combined the previous two analyses, introducing
a multi-level spatial problem, which aimed to explore central risk factors of CDI that
were not available at the same spatial scale in Chapter 5. Spatial interpolation methods
were applied to manipulate GP antibiotic prescribing point-location data and areal-unit
cattle density data to match the CDI incidence at an IZ spatial scale. These data could
then be explored as ecological risk factors of CDI incidence, carrying forward the previously
defined CAR model from Chapter 4 and adjusting for demographic confounders.
Welsh CDI incidence and primary care antibiotic prescribing data offered the opportunity
to compare between two countries in the UK. The retrospective ecological study in
Chapter 6 used aggregated disease surveillance data to understand the impact of total
and high-risk Welsh GP antibiotic prescribing on total and stratified inpatient/noninpatient
CDI incidence. Location and health board information were anonymised
preventing a formal spatial analysis, however, the results were comparable to previous
chapter findings and supported the hypothesis of an increased risk of CDI incidence
reflected in GP antibiotic prescribing rates, particularly high-risk antibiotics, and population
demographics.
Finally, at the beginning of the COVID-19 pandemic, it became evident that the
methodologies applied in this thesis could support the investigation of the spread of
COVID-19 infections. The work presented in Chapter 7 aimed to explore how best
to capture spatial patterns of community COVID-19 infection by conducting a spatiotemporal
analysis on three data streams { positive test rates, relevant NHS24 calls and
COVID Symptom Study (CSS) predicted cases, to assess which was best for early disease
surveillance. Results showed both sources to identify similar trends of COVID-19
and gold-standard testing data, particularly when used in parallel.
This thesis has provided new insights into the associated risks between CDI incidence
and GP antibiotic prescribing in Scotland and Wales, demonstrating the capabilities of
open-source and routinely collected public health data when applied in a spatial framework.
These results support the requirement of stringent measures to reduce antibiotic
prescribing in the community. It also highlights the beneficial use and suitability of
analysing infectious disease data with spatial techniques to address gaps in the literature
to understand population-based risk factors of disease. There is a strong argument
for future research into methods of analysing multi-level spatial data, particularly in
the application of observational public health data.Infectious diseases continue to pose major global health threats. With the recent devastation
from the COVID-19 pandemic and growing concerns of healthcare-associated
infections (HAIs), there is a worldwide requirement for stringent techniques to monitor
and understand the key drivers for infections. Infectious diseases have an inherent spatial
dimension due to the contagious nature of viruses and bacteria. This thesis aims to
explore the use of spatial and spatio-temporal techniques applied to infections, specifically
Clostridiodies difficile infection (CDI) and COVID-19, to identify risk factors at
an ecological population-based level. A mixture of open-sourced and routinely collected
data, at different spatial scales, were used to understand the surveillance capacities of
observational public health data.
Antimicrobial prescribing and stewardship have been a global focus in the last decade as
concerns have grown with emergent novel antibiotic-resistant infections. CDI has been
shown to have a well-defined association with certain broad-spectrum antibiotic classes
and other environmental factors, however, there is a gap in the literature aiming to
understand these relationships ecologically and spatially. The main focus of this thesis
was to use spatio-temporal models to investigate spatial risk factors of CDI incidence,
such as GP antimicrobial prescribing, in Scotland and Wales. Similar spatial techniques
were then applied to investigate the spatial distribution of COVID-19 testing during the
first wave of the 2020 epidemic in Scotland. The relevant spatial and spatio-temporal
models applied throughout this thesis were initially discussed in Chapter 2.
The spatial distribution of Scottish GP antibiotic prescribing rates, from 2016 to 2018,
was investigated in Chapter 3 using spatial point-location correlation methods. Risk
factors of increased GP antibiotic prescribing were explored, showing GP practice demographic information as key drivers of increased antibiotic prescribing. These analyses
were followed by an exploration of Scottish CDI incidence data, from 2014 to 2018, at a
small areal level (intermediate zones (IZ)), to understand spatial auto-correlation and
temporal trends of CDI incidence in Chapter 4. Population demographic risk factors,
as highlighted in the literature, were obtained at the same spatial scale and assessed as
ecological risk factors of CDI incidence using conditional autoregressive (CAR) models.
The next phase of this thesis then combined the previous two analyses, introducing
a multi-level spatial problem, which aimed to explore central risk factors of CDI that
were not available at the same spatial scale in Chapter 5. Spatial interpolation methods
were applied to manipulate GP antibiotic prescribing point-location data and areal-unit
cattle density data to match the CDI incidence at an IZ spatial scale. These data could
then be explored as ecological risk factors of CDI incidence, carrying forward the previously
defined CAR model from Chapter 4 and adjusting for demographic confounders.
Welsh CDI incidence and primary care antibiotic prescribing data offered the opportunity
to compare between two countries in the UK. The retrospective ecological study in
Chapter 6 used aggregated disease surveillance data to understand the impact of total
and high-risk Welsh GP antibiotic prescribing on total and stratified inpatient/noninpatient
CDI incidence. Location and health board information were anonymised
preventing a formal spatial analysis, however, the results were comparable to previous
chapter findings and supported the hypothesis of an increased risk of CDI incidence
reflected in GP antibiotic prescribing rates, particularly high-risk antibiotics, and population
demographics.
Finally, at the beginning of the COVID-19 pandemic, it became evident that the
methodologies applied in this thesis could support the investigation of the spread of
COVID-19 infections. The work presented in Chapter 7 aimed to explore how best
to capture spatial patterns of community COVID-19 infection by conducting a spatiotemporal
analysis on three data streams { positive test rates, relevant NHS24 calls and
COVID Symptom Study (CSS) predicted cases, to assess which was best for early disease
surveillance. Results showed both sources to identify similar trends of COVID-19
and gold-standard testing data, particularly when used in parallel.
This thesis has provided new insights into the associated risks between CDI incidence
and GP antibiotic prescribing in Scotland and Wales, demonstrating the capabilities of
open-source and routinely collected public health data when applied in a spatial framework.
These results support the requirement of stringent measures to reduce antibiotic
prescribing in the community. It also highlights the beneficial use and suitability of
analysing infectious disease data with spatial techniques to address gaps in the literature
to understand population-based risk factors of disease. There is a strong argument
for future research into methods of analysing multi-level spatial data, particularly in
the application of observational public health data
Glutamine and its use in selected oncology settings
This review summarises the latest evidence for the use of glutamine (GLN) in oncology taking cognisance of current systematic reviews and available guidelines. Various studies in adults suggest that GLN supplementation suppresses tumour growth, by restoring the function of natural killer cells; improves protein metabolism; and, possibly enhances the effect of cancer therapy. There is insufficient data on whether GLN supplementation reduces the incidence of infection, although a trend exists towards such a reduction. GLN-supplemented enteral nutrition was superior in improving immune function, whilst oral GLN alone appeared to have no effect on: mortality; infections; time to neutrophil recovery; or, relapse. GLN significantly reduces the duration of diarrhoea, but had no effect on its prevention. Oral GLN may reduce the duration and severity of mucositis, with fewer days on opioid therapy. Oral GLN, but not intravenous GLN (IV-GLN), may decrease mucositis and graft-versus-host disease in adult bone marrow transplant patients. Currently, the evidence for reduction of severe mucositis or infection rate in children is not statistically significant, but GLN does significantly reduce parenteral nutrition use, reflecting a possible improvement in lower gut mucositis. Nevertheless, too few studies exist to either support or refute that GLN supplementation either reduces the duration of, or prevents the progression to, severe mucositis. In children, there is no significant evidence that IV-GLN supplementation reduces infection rates, hospital length of stay (LOS), graft-versus-host disease, or mortality. Children with solid tumours on chemotherapy receiving oral GLN supplementation showed significant improvements in some nutritional and immunological parameters, as well as the severity of stomatitis and need for antibiotic therapy. Caution is recommended when considering provision of IV-GLN to oncology patients who have hepatic or renal insufficiency or failure. Monitoring of hepatic and renal function is recommended. Further studies are needed specifically on the use of glutamine in an oncology setting. Larger, multicentre, randomised placebo-controlled studies are needed in both adult and paediatric oncology populations.Keywords: cancer, glutamine, mucositis, oncolog
(Geschrapt) uitzondering UBO-registratieplicht kerkgenootschappen - een ongerijmdheid in de wetgeving
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