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What’s the difference between research aims and objectives.
A research aim is a broad statement indicating the general purpose of your research project. It should appear in your introduction at the end of your problem statement , before your research objectives.
Research objectives are more specific than your research aim. They indicate the specific ways you’ll address the overarching aim.
A research project is an academic, scientific, or professional undertaking to answer a research question . Research projects can take many forms, such as qualitative or quantitative , descriptive , longitudinal , experimental , or correlational . What kind of research approach you choose will depend on your topic.
The best way to remember the difference between a research plan and a research proposal is that they have fundamentally different audiences. A research plan helps you, the researcher, organize your thoughts. On the other hand, a dissertation proposal or research proposal aims to convince others (e.g., a supervisor, a funding body, or a dissertation committee) that your research topic is relevant and worthy of being conducted.
Formulating a main research question can be a difficult task. Overall, your question should contribute to solving the problem that you have defined in your problem statement .
However, it should also fulfill criteria in three main areas:
Research questions anchor your whole project, so it’s important to spend some time refining them.
In general, they should be:
All research questions should be:
Once you’ve decided on your research objectives , you need to explain them in your paper, at the end of your problem statement .
Keep your research objectives clear and concise, and use appropriate verbs to accurately convey the work that you will carry out for each one.
I will compare …
Your research objectives indicate how you’ll try to address your research problem and should be specific:
Research objectives describe what you intend your research project to accomplish.
They summarize the approach and purpose of the project and help to focus your research.
Your objectives should appear in the introduction of your research paper , at the end of your problem statement .
The main guidelines for formatting a paper in Chicago style are to:
To automatically generate accurate Chicago references, you can use Scribbr’s free Chicago reference generator .
The main guidelines for formatting a paper in MLA style are as follows:
To format a paper in APA Style , follow these guidelines:
No, it’s not appropriate to present new arguments or evidence in the conclusion . While you might be tempted to save a striking argument for last, research papers follow a more formal structure than this.
All your findings and arguments should be presented in the body of the text (more specifically in the results and discussion sections if you are following a scientific structure). The conclusion is meant to summarize and reflect on the evidence and arguments you have already presented, not introduce new ones.
The conclusion of a research paper has several key elements you should make sure to include:
Don’t feel that you have to write the introduction first. The introduction is often one of the last parts of the research paper you’ll write, along with the conclusion.
This is because it can be easier to introduce your paper once you’ve already written the body ; you may not have the clearest idea of your arguments until you’ve written them, and things can change during the writing process .
The way you present your research problem in your introduction varies depending on the nature of your research paper . A research paper that presents a sustained argument will usually encapsulate this argument in a thesis statement .
A research paper designed to present the results of empirical research tends to present a research question that it seeks to answer. It may also include a hypothesis —a prediction that will be confirmed or disproved by your research.
The introduction of a research paper includes several key elements:
and your problem statement
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You can find all the citation styles and locales used in the Scribbr Citation Generator in our publicly accessible repository on Github .
Phd program in malaria modelling, building the next generation of malaria modelers in africa for sustainable public health policies.
Despite the widespread efforts and notable successes in preventing and treating Malaria, sustaining reductions in Malaria disease burden remains an important global challenge. Treatment and prevention efforts such as drug treatment, vector control and bed nets are beset by challenges, including a lack of adequate surveillance data. National Malaria Control Programs (NMCPs) are continuously improving systems to gather critical data on malaria surveillance, coverage, and effectiveness of interventions. Mathematical modeling and geospatial analyses are opportunities to leverage existing and emerging data sources, extracting insight from entomological, epidemiological and intervention data to inform national and regional decision-making.
The MaModAfrica doctoral training program established at AIMS through funding from the Bill&Melinda Gates Foundation will strengthen expertise in applied mathematical and statistical malaria modeling among African academic institutions with a particular focus on the monitoring and implementation challenges faced by NMCPs. This doctoral training program will provide emerging African scientists with the opportunity to conduct research at the forefront of disease modeling, and work towards a PhD degree within a high-quality training program based in an Africa Institution, embedded in a cooperative network of international institutions.
This transdisciplinary program will focus on state-of-the-art modeling approaches driven by real-world questions in public health to reduce the burden of Malaria in Africa. It is built on the understanding that impactful approaches in Malaria modeling require technical expertise (e.g., mathematics, statistics, computation, and data science), the ability to formalize problems coming from experimental fields (e.g., parasitology, entomology, public health, and epidemiology) and communicate efficiently on the modeling process and the models with NMCPs.
MaModAfrica Consortium, will offer eight fully funded PhD positions in this prestigious new doctoral program. Most of the recruited students will be based in our three focus countries (Rwanda, Benin, and Mozambique) in partnership with universities and research institutions across Africa and globally. The program aims to train future African modelers, who will have an impact across academia, industry, education, and government.
Candidates can choose from a list of proposed research topics , and MaModAfrica Consortium will assist in building a supervision team around these topics. Alternatively, candidates can suggest their own research topics, together with a proposed supervision team. Depending on the topic, candidates will enroll in appropriate graduate programs of our partner universities. Selected students start in October 2023.
Call For Application in different Languages
Eligibility criteria
Summary
Application guidelines
The application must be submitted via AIMS application portal provided on the website . You need to have a Email account to be able to submit your application.
Before starting the application process, please make sure to prepare the following documents in pdf format:
and the following information:
After submission, you will receive a confirmation email of your application to your Email account. You will be able to edit your application until the deadline of the call unless you hit send.
Contact for application details: [email protected]
Supervision
Candidates are mentored by a supervision team of 2-4 supervisors, forming a partnership between higher education institutions in Africa and internationally. Each supervision team should consist of at least one supervisor affiliated or working closely with an NMCP, and one supervisor affiliated with the graduating institution.
The supervision team will be formed during Phase 2 of the application process in communication with shortlisted candidates, the MaModAfrica management board, and potential supervisors. Candidates have the possibility to suggest their own supervision team.
Research topics
Applicants can select from a list of research topics suggested by leading researchers in their field. Each candidate can choose at most two topics and rank them by preference. Alternatively, applicants are welcome to suggest their own research topics. Shortlisted candidates will be put in touch with the supervision teams that proposed their selected topics for discussions on more concrete research ideas in Phase 2 of the application process.
Training Components
All candidates will be invited to participate in an intensive training school in the first year of the program, organized by MaModAfrica at AIMS-Senegal. Here, candidates will acquire skills relevant to their research and broaden their subject knowledge in applied disease modeling through a small number of intensive core courses taught by top international researchers.
The program plans to provide continuous training opportunities virtually and/or in person. Additional training components may include (but are not limited to):
For any inquiries reach us on [email protected]
Applicants can select from a list of 13 research topics suggested by leading researchers in their field. Each candidate can choose at most two topics and rank them by preference. Alternatively, applicants are welcome to suggest their own research topics. Shortlisted candidates will be put in touch with the supervision teams that proposed their selected topics for discussions on more concrete research ideas in Phase 2 of the application process.
Topic 1 : Geospatial modeling of malaria hotspots in Benin
Malaria infections and morbidity are heterogeneously distributed across both time and space. Malaria elimination, and indeed more cost effective control, requires a more detailed description of this variation and an understanding of its drivers. The student will use mathematical models, spatial statistics and an epidemiological sampling framework to understand what drives hotspots of malaria transmission in endemic settings.
It is expected at least two publications (one methodological and another one applied). Influence vector interventions measures through the existing mosquitos control programs in Africa. Apply for funding in order to evaluate the benefit of control measures on the defined hotspot areas.
This project will suit a student with a Master degree in Epidemiology, Bayesian statistics, biostatistics or ecological modelling. The student will develop a high level of skill in spatial epidemiology and computation. The successful completion of this PhD will provide the opportunity for the student to work in a wide range of academic, public and private health organizations world-wide NMCPs.
Topic 2 : Enhancing malaria control by leveraging the use of routine surveillance through data science and mathematical modelling in Rwanda
In Rwanda, tremendous efforts have been made over the past years and significant decreases in malaria burden have been achieved. These were due to prompt interventions such as insecticide-treated mosquito nets (ITNs), indoor residual spraying (IRS) and good case management starting from the community level. However, as malaria transmission decreases and becomes more heterogeneous, it is crucial to understand how the different interventions impact transmission and tailor them accordingly in a cost-effective way. The aim of the project is to develop a quantitative, model-based approach to support the National Malaria Control Program (NMCP) of Rwanda for deciding on malaria control strategies, addressing the following objectives:
In this PhD, the candidate will dive deep into understanding the malaria routine surveillance system in Rwanda, specifically the different data collected, consisting of various indicators about malaria burden, intervention deployment, as well as geography-specific data (e.g., seasonality). First, using various statistical methods, the candidate will analyze the historical time series and quantify the effects of deployed interventions over time. The results of this analysis will be subsequently used to parameterize an individual model of malaria transmission reproducing the malaria transmission dynamics at various administrative resolutions across the country. This model will allow analysis of several scenarios investigating the potential impact of alternative control interventions. Specifically, the PhD will entail:
We expect from the candidate to have the following skills and qualifications:
Topic 3 : Age-structured malaria intervention models with applications to seasonal malaria chemoprevention in Senegal
Malaria interventions such as seasonal malaria chemoprevention (SMC) or vaccination showed promising results from randomized control trials or pilot studies. Nevertheless, when implemented by the malaria programs at larger scale, evidence for population-level efficiency is difficult to establish owing to various sources of heterogeneity.
In this project, the candidate will investigate heterogeneities related to age structures, which are particularly important for chemoprevention and vaccination. Using partial differential equations, we consider the age of infection (infectiousness to vectors), age of host (morbidity, mortality, immunity), age of intervention (time-dependent intervention efficacy). Concurrently with numerical simulations, the candidate will also explore physics-informed neural networks to approximate solutions in analytically intractable situations.
In collaboration with public health specialists from Senegal, the candidate will apply the modeling framework to evaluate the impact of SMC in the past and how to best combine SMC with vaccination for future planning in terms of age targets and deployment schemes (cohort, catch-up, seasonal) at the subnational level.
The candidate is required to have a firm quantitative undergraduate background (e.g. physics, mathematics, statistics, computer science) with basic knowledge about machine learning or dynamical systems. We require solid coding skills (e.g. C++, R, python, julia or Matlab) and familiarity with the challenges of high performance computing. Awareness for biological mechanisms and operational challenges, as well as efficient communication in a multidisciplinary environment are a plus.
Topic 4 : Mapping sub-national risk to support tailored approaches to malaria control in Mozambique and Rwanda
Despite significant declines in malaria burden and mortality, many endemic countries face the challenges of plateaued progress, pressures of external funding and the need to optimize limited resources in strategic and tailored approaches.
Disease risk maps are an essential tool in the fight against malaria, supporting data-evidenced decision making by enabling better targeting of malaria interventions and can be a standardized resource to track progress and facilitate our understanding of seasonal profiles of malaria in national and sub-national levels. As countries improve their disease surveillance tools, it enables modelers to design and develop more novel statistical and mathematical approaches which incorporate multiple datasets at varied spatial and temporal scales.
The main goal of this research is to develop multi-metric geostatistical and mechanistic models tailored to specific operationally relevant questions prioritized by malaria endemic countries. This PhD would take the form of a) scoping a novel problem in collaboration with PNCM Mozambique and Rwanda and then b) solving that problem by developing new statistical methods building on existing work where appropriate. Relevant topics may include modelling spatio-temporal patterns of incidence and prevalence (and their relationship), urban malaria, outbreaks, malaria persistence, vector dynamic and species distribution, risk in special populations (pregnant women and infants) and malaria co-morbidity (with anemia, schistosomiasis/helminths, malnutrition). A successful candidate would be expected to spend time with the MAP team in Perth to learn advanced geostatistical techniques and will have access to MAPs comprehensive library of high-resolution environmental and demographic covariates to supplement their work. Additionally, dissemination of modelled outputs back to PNCM Mozambique and development of tools to embed into the current surveillance system is key. Successful candidate would also contribute to local capacity building to improve uptake of modelled work in decision making processes.
Topic 5 : Understanding the impact of malaria interventions in northern Benin to inform future strategies in the country
Despite increased funding towards the universal scale-up of malaria control prevention, mainly through insecticide-treated bed nets (ITNs), SMC and treatment with artemisinin-based combination therapy (ACT), progress has stalled in many countries in recent years. There need to be on track to achieving national and global targets for 2020 and 2025 as defined in the World Health Organization Global Technical Strategy. One of the causes is the need for more appropriate allocation of limited resources by the NMCPs from high malaria burden countries.
To maximize progress in these countries, achieve malaria control and move toward its elimination, it is required for these countries to tailor the malaria interventions based on an adequate selection of intervention mixes for specific risk areas. This approach needs sub-national stratification of multiple malaria risk indicators from vector biology, parasite information, human behavior and routine health surveillance data, which could be combined into an overall malaria risk score per specific risk areas related to the local context in the country. This can be done with the use of mathematical modelling to predict the impact that different strategies might have.
In Benin, from 2006 to 2010, 2011 to 2018 and from 2017 to 2021, NMCP defined several strategies related to the intensification of malaria control, which was based on the use of Long-lasting Insecticide Treated Nets (LLINs) in all the country, indoor residual spraying (IRS) in some health district, intermittent preventive treatment in pregnant women (IPTp-SP) with sulfadoxine-pyrimethamine, and treatment with artemisinin-based combination therapy (ACT) in all the country. Recently seasonal malaria chemoprevention has been implemented in the northern regions of Benin, where malaria transmission is highly seasonal. New policies are being introduced in the health system through an integrated national strategic plan oriented towards the elimination of HIV/aids, tuberculosis, malaria, viral hepatitis, IST and diseases with epidemic potential (2020-2024).
In line with World Health Organization (WHO) recommendations, Benin NMCP’s is now poised to define ways to maximize the future malaria control strategies impact, reduce inefficiencies and create a platform to sub-nationally target resources and monitor progress.
During this PhD, the candidate will use more information than morbidity and mortality data, human, mosquito and parasite data, which reflect diverse transmission dynamics influenced by climate, environment and behavioral factors to accurately and reliably develop appropriate malaria risk stratification; The candidate will then use mathematical modeling to assess technical feasibility and determine which intervention mixes would maximize impact to meet the target and within the constraint of cost-effectiveness.
Topic 6 : Building predictive models of malaria vector larval habitat locations for understanding the spatial determinants of malaria transmission in Mozambique
Vector control remains the vital component of malaria control and elimination strategies. A potentially important target of vector control for malaria is the larva. It is well recognized that proper management of larval habitats in sub-Saharan countries, particularly during dry seasons, can help suppress vector densities and malaria transmission. However, our understanding of the ecology of malaria vector larvae is still limited. For example, in Mozambique little is known about the causes of spatial heterogeneity in the abundance and distribution of malaria vectors, as well as several larval habitats contributing to malaria vector abundance.
Mechanistic and predictive models that make use of landscape variables and account for seasonal variations in habitat probability based on accumulated precipitation are essential tools for investigating the links between larval habitat distribution and adult malaria vector distribution across a large landscape where manually mapping the larval habitats would be infeasible. Also, such models could be useful for malaria control programs, allowing decision-makers to focus their efforts to areas where larval habitats are most likely to occur.
Therefore, this project proposal intends to develop geospatial and mechanistic models tailored to answer the following objectives: (1) to characterize larval habitats of the malaria vector; (2) to investigate the spatial distribution of the malaria vector by determining the links between the distribution of larval habitats and the distribution of the adult vector of malaria in different geographic landscapes; (3) make use of the information generated to develop and test predictive models of larval habitat sites using landscape variables that predict the likelihood of water bodies, and taking into account the seasonal changes habitat probability based on accumulated rainfall; (4) then investigate how the distribution larval habitats is linked to the current spatial heterogeneity of malaria prevalence in the country.
The successful candidate would be based at Manhiça Health Research Centre (CISM), with secondments at Eduardo Mondlane University (UEM), University of Johannesburg (UJ) and NMCP. The candidate should have MSc in Mathematics/Statistics or any related field with strong mathematical/statistical background, with knowledge of programming and statistical software (preferably R), basic knowledge of relational database systems and SQL, knowledge of malaria epidemiology, effective communication and scientific writing skills, and good interpersonal and organization skills.
Topic 7 : Mathematical modeling and control of malaria transmission dynamics: Using sterile mosquito dissemination by Wolbachia bacteria in Burkina Faso
Given that Anopheles mosquitoes are malaria vectors, one of the effective strategies to control malaria transmission relies on the use of insecticides. Accordingly, resistance to insecticides has emerged as a biological threat to malaria control and elimination efforts in endemic areas. Widespread insecticide resistance has increased the malaria burden in many malaria-endemic regions, challenging global malaria eradication. Thus, an effective alternative to insecticides is needed. Notably, the sterile insect technique, in particular the Wolbachia bacteria. The sterile insect technique consists in a massive releasing into the wild of sterilized males to mate with females in the aim to reduce the size of the insect population. It has been first studied by R. Bushland and E. Knipling and experimented successfully in the early 1950’s by nearly eradicating screw-worm fly in North America. Since then, this technique has been studied on different pests and disease vectors. In particular, it is of interest for control of mosquito populations and has been modeled mathematically and studied in several papers. So, in the research project, we are interested in the development of a mathematical model of the dynamics of mosquito populations subject to human interventions by ODE’s (Ordinary differential equations). Our main goal is the elimination or the reduction of wild mosquitoes under a certain threshold in a targeted area by the release of sterilized males. In this case, it will be a question of establishing a relation between this critical threshold for the release of inseminated mosquitoes and the basic reproduction rate. Thus, our analysis will allow a better understanding of the effectiveness of this technique in the fight against malaria diseases.
Numerical analysis and computer simulations will be undertaken to put theory and observation together to gain insight into the working biological systems, to estimate relevant parameters from data and validate the proposed models. Those numerical simulations will show the impact of sterile mosquitoes on malaria transmissions global behavior and reveal the effects of time on the persistence and extinction of the disease.
A successful candidate would be expected to spend time TARGET Malaria team in Bobo Dioulasso to learn advanced biological techniques about virus Wolbachia and will have access to a comprehensive library to start their work.
Successful candidate must have a good background in mathematical modeling and numerical simulation.
Successful candidate would also contribute through his numerical simulations results to local capacity building to improve uptake of modelled work in decision making processes.
Topic 8 : Molecular surveillance of malaria coupled with mathematical modelling to assess asymptomatic infections in Kenya
In this PhD, the candidate will dive deep into understanding the molecular and sero- surveillance system for malaria in Kenya, specifically the different data collected, consisting of various indicators about malaria burden, intervention deployment, as well as geography-specific data (e.g., seasonality). First, using various statistical methods, the candidate will analyse the historical time series and quantify the effects of deployed interventions over time. The results of this analysis will be subsequently used to parameterise an individual-based model of malaria transmission reproducing the malaria transmission dynamics at various administrative levels across the country. This model will allow analysis of several scenarios investigating the potential impact of alternative control interventions. Specifically, the PhD will entail:
Topic 9 : Real-time prediction of insecticide resistance in Rwanda
Successful malaria control depends on the use of insecticide products in long-lasting insecticidal nets and indoor residual spraying. Using these methods, Rwanda has successfully reduced the numbers of cases and deaths due to malaria. However, the effectiveness of these interventions is threatened by the rise and spread of insecticide resistance (IR), which has increased rapidly across malaria-endemic Africa over the past decade and risks undoing the significant gains in controlling malaria cases across the continent. Accurate monitoring and rapid response can enable mosquito control programs to adapt the use of insecticides to mitigate or even prevent the rise of resistance. The project will develop a predictive modelling tool to pre-empt the development of insecticide resistance and enable the MOPDD, and other malaria control departments in Africa, to respond effectively to the threat of insecticide resistance. The candidate will work closely with the Rwandan National Malaria Control Program (Malaria & Other Parasitic Diseases Division; MOPDD), AIMS Rwanda, and the Malaria Atlas Project in Perth, Australia. They will adapt and extend a cutting-edge mathematical and statistical model of phenotypic insecticide resistance, to enable spatio-temporal prediction of insecticide resistance levels in target vector species from genotypic (e.g., KDR marker) and phenotypic resistance, and resistance intensity bioassay data all held by MOPDD, along with environmental data on e.g., agricultural insecticide usage and climate. The model fitting process will elucidate the likely drivers of resistance in Rwanda. The insecticide resistance prediction maps produced will provide an evidence-base to inform MOPDD in switching between different intervention types. The model will also map uncertainty in predictions, enabling prioritization of future IR surveillance activities. The candidate will develop computational code enabling this model to be rapidly re-run as new data is collected, and results uploaded to a dashboard to inform the Ministry of Health/MOPDD in real-time. This computer code will be packaged into a user-friendly research software application enabling the tool to be used in other countries, and beyond the end of the project. Required:
Topic 10 : Mechanistic and geospatial models to support genomic surveillance in elimination countries such as Senegal
In many elimination settings common surveillance datasets such as cross-sectional surveys lack the statistical power to inform sub nationally tailored intervention strategies, especially when trying to push the final frontier of malaria to zero. The integration of genomic/molecular surveillance into routine surveillance activities has the potential to increase the actionable intelligence for making programmatic decisions on optimal mixes of interventions for elimination by informing on drug and diagnostic resistance; identifying reservoirs of sustained transmission; quantifying importation risk and identifying local transmission foci whilst additionally supporting impact evaluations.
This project would focus on the integration of novel streams of genomic data into geospatial and mechanistic approaches. A successful candidate would partner with current genomic experts to understand relevant data sources, hierarchical structures and how they inform current geospatial modelling frameworks, with a view to developing/using statistical and mathematical techniques synthesising genomic and other data to answer operationally relevant research questions as identified by a partner national program. This work would be in partnership with genomics researchers and national programs in Senegal.
Topic 11 : Impact and risk of deployment of Seasonal Malaria Chemoprevention in Mozambique
Seasonal malaria chemoprevention (SMC) is a highly effective community-based intervention for malaria prevention in areas where the malaria burden is high and seasonal transmission occurs. To date, mainly west African countries have been considered for implementation due to their strong seasonality of transmission. SMC had not been previously implemented in east and southern Africa due to concerns over parasite resistance to the antimalarials used in SMC. Mozambique contributes 4% of global malaria cases, and malaria represents one of the four major causes of death in the country.
However, Mozambique has a very high number of malaria cases in some parts and it is believed that SMC would have a strong impact, due to its rainfall patterns concentrating malaria cases during well-defined periods. The High Burden to High Impact initiative launched in 2018 promotes the use of evidence to support national malaria strategies. In this light, dynamical modelling can serve as a useful tool to provide insight and simulate what would be the expected impact of SMC in untested areas. Based on recommendations in the midterm review of the Malaria Strategic Plan, Malaria Consortium, in partnership with the Mozambican National Malaria Control Program (NMCP), initiated a two-year SMC implementation evaluation in the northern province of Nampula. These studies showed high levels of effectiveness, while resistance was also high, but not negatively impacted by SMC.
Often, the counter-arguments for using drug-based interventions include the risk of adding drug pressure and increasing the risk of emergence and spread of drug-resistant Plasmodium falciparum. Indeed, it has been assumed until now that drug resistance would render the intervention ineffective but no real world evidence has been collected to date. So here again, modelling can help quantify what this risk could be expected to be given specific deployment and geographic characteristics.
In order to explore all these aspects, the project would be articulated around the following objectives.
Prior experience or study in at least one of the following will be required:
The following specific skills and experience are desirable:
Idealism, humility, and desire to see quantitative approaches make a difference in the world
Topic12: Biophysical Modelling of Malaria Parasite invasion of Red Blood Cells
The asexual proliferation of merozoite (malaria parasite) inside human red blood cells (RBCs) has devastating effects on human health. When merozoites enter the bloodstream from the liver, they must invade RBCs within a few minutes to survive. Thus understanding the invasion mechanism is critical to fighting the disease.
The merozoite generates force using actin and myosin, but in a different way to other cells, using a ring structure unique to apicomplexa. Detailed positions of protein complexes involved are still not well established but from a physics perspective it is necessary that actin filaments and myosin motors are attached to a rigid structure, one in the RBC and one in the merozoite. This enables the myosin motors to push the merozoite, sliding it with respect to the RBC. To invade, the merozoite needs to get through the RBC spectrin network on the inside of its membrane.
In this project the candidate will be based at AIMS Ghana and will calculate the active propulsion force generated by the merozoite that is necessary for successful invasion. This will involve developing a simple model of the molecular components and calculating the energy required to make a hole in the RBC spectrin network by stretching and breaking bonds. We expect only a few filaments are required, meaning that the stochastic fluctuations inherent in the system will be important in determining whether or not a merozoite successfully invades. We will model the stochasticity of motor binding using master equations and disorder in the spectrin network using disordered polymer network theory. We will validate our model and test predictions with experimental images taken by our WACCBIP (University of Ghana) collaborators. This will enable us to determine the spatial arrangement, identities and numbers of cytoskeleton components and inform target choice for future antimalarial drugs or vaccines. Through regular meetings with the Ghanaian National Malaria Control Program (NMCP) team, we will tailor the development of the modelling work and target choice to best address the NMCP goals.
Requirements:
Alfredo Zacarias Muxlhanga
Read More… from Mamodafrica Phd program
Fameno Rakotoniaina
Gabriel Michel Monteiro
Roland Christel Sonounameto
Timóteo Sambo
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Doing a PhD; Aims and Objectives - A Guide for Academic Writing ; Summary. One of the most important aspects of a thesis, dissertation or research paper is the correct formulation of the aims and objectives. This is because your aims and objectives will establish the scope, depth and direction that your research will ultimately take.
7 stages of the PhD journey. A PhD has a few landmark milestones along the way. The three to four year you'll spend doing a PhD can be divided into these seven stages. Preparing a research proposal. Carrying out a literature review. Conducting research and collecting results. Completing the MPhil to PhD upgrade.
Your PhD isn't as long as you think it is and you won't have time or room for more than around two or three. 2. When you write them up, be very specific. Don't leave things so vague that the reader is left unsure or unclear on what you aim to achieve. 3. Make sure there is a logical flow between each of your aims.
Understanding these aims not only clarifies the purpose of a PhD program but also helps you to maximise your academic and professional growth during this pivotal stage. Develop Knowledge And Skills In Research. As a PhD student, you're in a unique setting where developing research skills is not just a goal but a necessity. In this role, you ...
4. Research Aims & Objectives. Identify the aims and objectives of your research. The aims are the problems your project intends to solve; the objectives are the measurable steps and outcomes required to achieve the aim. In outlining your aims and objectives, you will need to explain why your proposed research is worth exploring. Consider these ...
The broad aims and objectives for your PhD will already be defined: you just need to prove you're the right person to do it. But, if you're proposing your own research topic to research within a university's PhD programme, you will need to write a proposal for it (the clue is in the word "proposing")
Knowing how to write your PhD aims and objectives involves being super clear on a few key things:- The difference between aims and objectives;- Words and phr...
Aims and objectives. This is a summary of your project. Your aims should be two or three broad statements that emphasise what you want to achieve, complemented by several focused, feasible and measurable objectives - the steps that you'll take to answer each of your research questions. ... This section of your PhD proposal discusses the most ...
PhD students, get your dissertation off to a great start with my tips for aims and objectives! Let's dive into the often misunderstood territory of aims and objectives - those crucial elements that form the foundation of your thesis. Understanding the Basics: Aims vs. Objectives. First things first, let's clear the air about aims and objectives.
PhD Advice. Gain valuable insight from our collection of exclusive interviews with both current and past PhD students. Learn from their best advice, personal challenges and career path after completing their doctorate. Discover exactly what you'll do as a Research Student, what outputs will be expected of you and how you can best approach them.
Research Aims: Examples. True to the name, research aims usually start with the wording "this research aims to…", "this research seeks to…", and so on. For example: "This research aims to explore employee experiences of digital transformation in retail HR.". "This study sets out to assess the interaction between student ...
Therefore, in a good research proposal you will need to demonstrate two main things: 1. that you are capable of independent critical thinking and analysis. 2. that you are capable of communicating your ideas clearly. Applying for a PhD is like applying for a job, you are not applying for a taught programme.
A Template To Help You Structure Your PhD's Theoretical Framework Chapter. In this guide, I explain how to use the theory framework template. The focus is on the practical things to consider when you're working with the template and how you can give your theory framework the rockstar treatment. Use our free tools, guides and templates to ...
A personal statement provides additional information on a PhD applicant's academic background, relevant experience and motivations for undertaking postgraduate research. It is different from a PhD proposal, which outlines a particular research topic, explaining its aims, methodology and scholarly or scientific value.
Introduction. In a PhD or Post Graduate dissertation, the aims and objectives play a crucial role in shaping the research process and ensuring focus. They provide a clear roadmap for your study and serve as the guiding principles that steer your research in the right direction. Aims represent the broader purpose or the overarching goal of your ...
The African Institute for Mathematical Sciences - Research (AIMS Research) is pleased to invite prospective postgraduate students who hold a Master's degree in any mathematical science discipline to apply for one of eight PhD bursaries available through the AIMS Doctoral Training Program (ADTP). This program seeks to address the shortage of ...
1. identification of the behaviors that are considered as bullying. 2. exploring the factors that cause bullying at a culturally diverse workplace. 3. analyzing the relationship between bullying and job satisfaction of employees. 4. providing suitable recommendations on minimizing the bullying at the workplace.
Formulating research aim and objectives in an appropriate manner is one of the most important aspects of your thesis. This is because research aim and objectives determine the scope, depth and the overall direction of the research. Research question is the central question of the study that has to be answered on the basis of research findings.
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A PhD, which is short for philosophiae doctor (doctor of philosophy in Latin), is the highest university degree that can be obtained. In a PhD, students spend 3-5 years writing a dissertation, which aims to make a significant, original contribution to current knowledge.
A research plan helps you, the researcher, organize your thoughts. On the other hand, a dissertation proposal or research proposal aims to convince others (e.g., a supervisor, a funding body, or a dissertation committee) that your research topic is relevant and worthy of being conducted.
The German Research Chair for Applied Mathematics and AI at AIMS Rwanda invites applications for a Research Assistant position (PhD required), starting from October 2024. Apply Now. With Meta Tags you can edit and experiment with your content then preview how your webpage will look on Google, Facebook, Twitter and more!
MaModAfrica Consortium, will offer eight fully funded PhD positions in this prestigious new doctoral program. Most of the recruited students will be based in our three focus countries (Rwanda, Benin, and Mozambique) in partnership with universities and research institutions across Africa and globally. The program aims to train future African ...