With gas prices on the rise, the demand for high-mileage and low pollution vehicles has taken on an unprecedented role in our society. The production and implementation of electric and hybrid-electric vehicles has recently been a large focus of all major automobile manufacturers. Although these new vehicles have begun to solve much of the expensive fuel consumption and air pollution problems that our economy faces, the initial cost of these vehicles has proven to still be too expensive to capture a significant portion of the market. The further advancement of this technology must not only continue to focus on better fuel efficient and decreased pollution producing vehicles, but also decrease the cost of these vehicles to make them more available and enticing to the general public. Results from this research include one potential solution to reduce the cost of electric and hybrid-electric vehicles. Previous research performed in this area has led to the investigation and bench-top testing of a special type of mechanical system known as a Planetary Differential (PD). An exploration of the functionality of this system has shown that the PD can simplify expensive and complex electronic control systems for electric and hybrid-electric vehicles, thus reducing the cost to the consumer. In this study, fundamental speed, torque and power relationships for the PD were developed and tested under various loading conditions. Advantages and disadvantages of the PD, as compared to other similar mechanical systems, are identified and outlined. Recommendations for future work and implementation of the PD in electric and/or hybrid-electric vehicles are presented herein.

Anaerobic digestion is a process where biogas is generated from organic substance in the absence of oxygen. The most common application of the anaerobic digestion technology in developing countries is small-scale household digesters producing biogas for cooking purposes. These systems are usually fed with cattle dung or organic household waste. The typical small-scale digester models are fixed-dome digester, floating-drum digester and rubber-balloon digester. Biogas systems contribute to self-sustainability of energy production, improve waste management and mitigate deforestation and health problems caused by poor waste management and usage of traditional cooking fuels such as firewood and charcoal. Anaerobic digestion technology is still quite unknown in Mozambique. An initiative to implement this technology in the municipality of Quelimane located in Zambézia province in the central part of the country, was taken in 2015 and background studies were performed during spring 2015 and 2016. As a part of the study resulting in this report, performed in spring 2017, a small-scale biogas digester was installed in Quelimane city. The digester was fed with the initial input of cow manure in order to create population of anaerobic bacteria and in the future it’s planned to be fed with food waste. The purpose of the first installed digester is to serve for educational purposes and to produce cooking fuel for the few people working in the municipal location where the digester is installed. It’s estimated that the digester has a potential to produce daily 0.3 m3 of biogas from 2 kg of food waste which can be used for preparing lunch for the employees or for heating water. In the future, possible applications of anaerobic digestion technology in Quelimane are a municipal biogas plant, cooling systems for the fish industry and biogas based latrines in the less developed areas located outside of the city center.

This thesis has investigated the application of CFRP and GFRP bars as longitudinal reinforcement for continuously supported concrete beams. Two series of simply and continuously supported CFRP and GFRP reinforced concrete beams were tested in flexure. In addition, a continuously supported steel reinforced concrete beam was tested for comparison purposes. The FRP reinforced concrete continuous beams were reinforced in a way to accomplish three possible reinforcement combinations at the top and bottom layers of such continuous beams. The experimental results revealed that over-reinforcing the bottom layer of either the simply or continuously supported FRP beams is a key factor in controlling the width and propagation of cracks, enhancing the load capacity, and reducing the deflection of such beams. However, continuous concrete beams reinforced with CFRP bars exhibited a remarkable wide crack over the middle support that significantly influenced their behaviour. The ACI 440.1R-06 equations have been validated against experimental results of beams tested. Comparisons between experimental results and those obtained from simplified methods proposed by the ACI 440 Committee show that ACI 440.1R-06 equations can reasonably predict the load capacity and deflection of the simply and continuously supported GFRP reinforced concrete beams tested. However, The potential capabilities of these equations for predicting the load capacity and deflection of continuous CFRP reinforced concrete beams have, however, been adversely affected by the de-bonding of top CFRP bars from concrete. An analytical technique, which presents an iterative procedure based on satisfying force equilibrium and deformation compatibility conditions, has been introduced in this research. This technique developed a computer program to investigate flexural behaviour in particular the flexural strength and deflection of simple and continuously supported FRP reinforced concrete beams. The analytical modelling program has been compared against different prediction methods, namely ACI 440, the bilinear method, mean moment inertia method and Benmokrane¿s method. This comparison revealed the reliability of this programme in producing more enhanced results in predicting the behaviour of the FRP reinforced beams more than the above stated methods.

Stochastic delay differential equations (SDDEs) are systems of differential equations with a time lag in a noisy or random environment. There are many nonlinear SDDEs where a linear growth condition is not satisfied, for example, the stochastic delay Lotka-Volterra model of food chain discussed by Xuerong Mao and Martina John Rassias in 2005. Much research has been done using discrete delay where the dynamics of a process at time t depend on the state of the process in the past after a single fixed time lag \tau. We are researching processes with continuously distributed delay which depend on weighted averages of past states over the entire time lag interval [t-\tau,t].By using martingale concepts, we prove sufficient conditions for the existence of a unique solution, ultimate boundedness, and non-extinction of one-dimensional nonlinear SDDE with continuously distributed delay. We give generalized Khasminskii-type conditions which along with local Lipschitz conditions are sufficient to guarantee the existence of a unique global solution of certain n-dimensional nonlinear SDDEs with continuously distributed delay. Further, we give conditions under which Euler-Maruyama numerical approximations of such nonlinear SDDEs converge in probability to their exact solutions.We give some examples of one-dimensional and 2-dimensional stochastic differential equations with continuously distributed delay which satisfy the sufficient conditions of our theorems. Moreover, we simulate their solutions and analyze the error of approximation using MATLAB to implement the Euler-Maruyama algorithm.

Four sections of continuously reinforced concrete pavement (CRCP) were constructed at the University of São Paulo campus in order to introduce this kind of pavement structure to Brazil\'s technical transportation community. Sections were designed as 50 m long concrete slab, short in comparison to traditional CRCP, in order to simulate bus stops and terminals - locations of critical interest for public infrastructure. The thesis presented herein concludes this research project initiated in 2010. As the initial goal of this study was the development of coherent, reliable and intuitive design recommendations for the use of CRCP technology in Brazil, a profound understating of its structural and performance peculiarities was needed. For that, the cracking process of the experimental CRCP sections was recorded over a span of seven years. Due to the sections\' short length and lack of anchorage, the experimental \"short\" CRCP presented a cracking behavior quite different than traditional CRCP. There were much less visible cracks than expected. To address this issue, a novel technology in ultrasonic non-destructive testing of concrete structures was applied. Through ultrasonic signal interpretation it was possible to discover several incipient non-visible cracks within the slabs - many of these became apparent on the slab surface in later crack surveys - and to characterize visible and non-visible cracks regarding crack depth. The updated crack map with non-visible cracks showed similarities with traditional CRCP. Additionally, the ultrasonic data analysis provided important information on thickness variation, reinforcement location and concrete condition that were applied in theoretical simulations (finite element software) of the short CRCP. Simulations were attempted considering different slab geometries, firstly with transverse cracks as joints with high load transfer efficiency (LTE) and secondly with a continuous slab without cracks or joints. The latter simulation was more accurate reaching a shift factor between field and simulated stresses in the order of 0.7 to 1.0. Deflection data and LTE analysis from cracks and panels in between cracks further attested the slab continuous behavior, which contradicts current CRCP design models and performance predictors. Furthermore, critical traffic and environmental loading conditions concerning Brazil\'s climate and bus traffic characteristics were investigated and related using a selected fatigue model resulting in design recommendations in a chart format for the short CRCP aimed at long-term projects for over 20 years of operation. The design chart was successfully applied to investigate three failures presented by the experimental short CRCP due to thickness deficiencies pointed out by the ultrasonic testing. / Quatro seções de pavimento de concreto continuamente armado (PCCA) foram construídas no campus da Universidade de São Paulo, com o objetivo de introduzir esta estrutura, de reconhecido sucesso internacional, à comunidade técnica de engenharia de transportes brasileira. As seções foram projetadas com uma placa de concreto de 50 m de extensão, curta em comparação ao PCCA tradicional, com a finalidade de simular paradas e terminais de ônibus - locais de grande interesse para a infraestrutura pública. A tese aqui apresentada conclui este projeto de pesquisa iniciado em 2010. Como o objetivo inicial deste estudo foi o desenvolvimento de recomendações de projeto coerentes, confiáveis e intuitivas para a utilização do PCCA no Brasil, foi necessário um profundo entendimento de suas peculiaridades estruturais e de desempenho. Para isso, o processo de fissuração das secções experimentais foi acompanhado durante sete anos. Devido à curta extensão e falta de ancoragem das seções, o PCCA \"curto\" apresentou um padrão de fissuração diferente do PCCA tradicional com muito menos fissuras visíveis na superfície do que o esperado. Para abordar esta questão, uma nova tecnologia ultrassônica para ensaios não destrutivos de estruturas de concreto foi aplicada. Pela interpretação do sinal de ultrassom, foi possível descobrir várias fissuras incipientes (não visíveis) dentro das placas - muitas dessas foram observadas na superfície da placa em levantamentos de fissuras posteriores - e caracterizar fissuras visíveis e não-visíveis quanto à profundidade da fissura. O mapa de fissuração atualizado com fissuras não visíveis mostrou semelhanças com PCCA tradicional. Além disso, a análise dos dados de ultrassom forneceu informações importantes sobre a variação da espessura, localização da armadura longitudinal e condição do concreto, que foram aplicados em simulações teóricas (software de elementos finitos) do PCCA curto. Simulações foram propostas considerando diferentes geometrias, primeiramente com fissuras transversais como juntas com alta eficiência de transferência de carga (LTE) e posteriormente com uma placa contínua, sem fissuras ou juntas. Esta última simulação foi mais precisa alcançando um fator de conversão entre tensões de campo e simuladas na ordem de 0,7 a 1,0. Dados de deflexão e análise de LTE em fissuras e placas entre fissuras atestaram novamente o comportamento contínuo das placas, o que vai em contradição com os modelos atuais de dimensionamento e de previsão de desempenho para o PCCA. Ademais, o tráfego crítico e condições de carga ambiental correspondentes ao clima e tráfego de ônibus típicos brasileiros foram investigados e relacionados usando um modelo de fadiga resultando em recomendações de projeto para o PCCA de curta extensão sendo direcionado para projetos de longo prazo para mais de 20 anos de operação. O gráfico de projeto foi aplicado com sucesso para investigar três falhas apresentadas pelo PCCA curto experimental devido a deficiências de espessura apontadas pelo teste ultrassônico.

O pavimento de concreto continuamente armado (PCCA) é caracterizado pela presença de uma alta taxa de armadura longitudinal localizada acima do meio da placa; essa armadura possibilita ao pavimento uma placa de concreto sem juntas. Diferentemente do pavimento de concreto simples, no PCCA não há uma indução da fissuração; as fissuras ocorrem de maneira aleatória, porém são mantidas fortemente apertadas pela armadura longitudinal proporcionando uma estrutura de alta durabilidade exigindo o mínimo de manutenção. Perante tais benefícios, decidiu-se construir quatro seções experimentais deste pavimento no campus da Universidade de São Paulo. A maior diferença entre o PCCA experimental e aqueles encontrados na literatura técnica é a extensão; com o intuito de simular uma parada de ônibus, cada seção possui 50 metros de comprimento, curtas em comparação com os até 400 metros de comprimento encontrados em PCCA tradicionais. Para analisar o comportamento do pavimento foram esquematizados três estudos de desempenho: levantamentos de fissuras; testes de deformação com provas de carga dinâmicas (PCD) com um caminhão carregado; e testes de deflexões com o Falling Weight Deflectometer (FWD). A análise da fissuração mostra um comportamento bastante distinto daquele encontrado em PCCA tradicionais; a curta extensão, aliada à falta de ancoragem da placa, resultou em uma fissuração bastante tardia e em um elevado espaçamento entre fissuras. A seção 1, não apresenta, até esta data (dezembro de 2013), nenhuma fissura. A pouca fissuração sugeriu a hipótese de que as fissuras estariam invisíveis a olho nu em função do forte efeito de amarração das barras longitudinais. Entretanto, apesar de tais diferenças, o estudo das tensões através das deformações obtidas pelos strain gauges nas PCD apontam um desempenho estrutural adequado do pavimento; as tensões de tração na flexão resultaram em valores bastante inferiores à resistência do concreto, assegurando a qualidade da placa. Além destas afirmações, as PCD possibilitaram uma série de análises de tensões com configurações de carregamento diferentes. O estudo de deflexões mostrou que nas proximidades da borda longitudinal do pavimento, as deflexões são maiores devido à falta de ancoragem do sistema; no centro as deflexões foram típicas de pavimentos de concreto. A retroanálise das bacias de deflexão resultou em valores de módulo de elasticidade e módulo de reação do subleito baixos próximos à borda, reforçando o impacto da falta de ancoragem. A análise da eficiência de transferência de carga entre fissuras mostrou um desempenho altamente satisfatório de todas as fissuras, inclusive aquelas mais próximas das bordas, o que, novamente, certifica a integridade estrutural da placa. / The continuously reinforced concrete pavement (CRCP) is characterized by the presence of a high longitudinal reinforcement percentage located above the slabs middle; this steel allows a concrete slab without joints. Unlike jointed plain concrete pavements, the CRCP has no cracking induction; the cracks occur randomly, but are held strongly tight by the longitudinal steel, thus, providing a highly durable structure that requires minimal maintenance. Given these benefits, it was decided to build four experimental sections of this pavement on the University of São Paulo\'s campus. The biggest difference between the experimental CRCP and those found in the technical literature is the length; in order to simulate a bus stop, each section is 50 meters long, short compared to traditional PCCA up to 400 meters long. To analyze the behavior of the pavement, three performance studies were carried out: cracks surveys; strain tests with dynamic load tests (DLT) with a loaded truck; and Falling Weight Deflectometer (FWD) deflection testing. The analysis shows that the cracking pattern is quite distinct from that found in traditional PCCA, the short extension, coupled with the slabs lack of anchorage, resulted in a late cracking development and in large crack spacing. Section 1, has yet to develop any cracks. The low cracking suggested the hypothesis that the cracks were invisible to the naked eye due to the longitudinal bars strong binding effect. However, despite these differences, the stress study through strains obtained by strain gauges in DLT indicate an appropriate structural performance of the pavement, the flexural tensile stresses resulted in values well below the concretes strength, ensuring the slabs quality. Also, the DLT enable a series of stresses analysis with different load configurations. The deflection study showed that in the longitudinal edges vicinity, deflections are higher due to lack of any anchorage system; the center deflections are typical concrete pavement ones. The deflection basins backcalculation resulted in values of elasticity modulus of concrete and modulus of subgrade reaction lower near the edge, reinforcing the impact of the lack of anchorage. The analysis of the load transfer efficiency across cracks showed highly satisfactory performance of all cracks, including those nearest to the edge, which certifies the structural integrity of the slab.

Four sections of continuously reinforced concrete pavement (CRCP) were constructed at the University of São Paulo campus in order to introduce this kind of pavement structure to Brazil\'s technical transportation community. Sections were designed as 50 m long concrete slab, short in comparison to traditional CRCP, in order to simulate bus stops and terminals - locations of critical interest for public infrastructure. The thesis presented herein concludes this research project initiated in 2010. As the initial goal of this study was the development of coherent, reliable and intuitive design recommendations for the use of CRCP technology in Brazil, a profound understating of its structural and performance peculiarities was needed. For that, the cracking process of the experimental CRCP sections was recorded over a span of seven years. Due to the sections\' short length and lack of anchorage, the experimental \"short\" CRCP presented a cracking behavior quite different than traditional CRCP. There were much less visible cracks than expected. To address this issue, a novel technology in ultrasonic non-destructive testing of concrete structures was applied. Through ultrasonic signal interpretation it was possible to discover several incipient non-visible cracks within the slabs - many of these became apparent on the slab surface in later crack surveys - and to characterize visible and non-visible cracks regarding crack depth. The updated crack map with non-visible cracks showed similarities with traditional CRCP. Additionally, the ultrasonic data analysis provided important information on thickness variation, reinforcement location and concrete condition that were applied in theoretical simulations (finite element software) of the short CRCP. Simulations were attempted considering different slab geometries, firstly with transverse cracks as joints with high load transfer efficiency (LTE) and secondly with a continuous slab without cracks or joints. The latter simulation was more accurate reaching a shift factor between field and simulated stresses in the order of 0.7 to 1.0. Deflection data and LTE analysis from cracks and panels in between cracks further attested the slab continuous behavior, which contradicts current CRCP design models and performance predictors. Furthermore, critical traffic and environmental loading conditions concerning Brazil\'s climate and bus traffic characteristics were investigated and related using a selected fatigue model resulting in design recommendations in a chart format for the short CRCP aimed at long-term projects for over 20 years of operation. The design chart was successfully applied to investigate three failures presented by the experimental short CRCP due to thickness deficiencies pointed out by the ultrasonic testing. / Quatro seções de pavimento de concreto continuamente armado (PCCA) foram construídas no campus da Universidade de São Paulo, com o objetivo de introduzir esta estrutura, de reconhecido sucesso internacional, à comunidade técnica de engenharia de transportes brasileira. As seções foram projetadas com uma placa de concreto de 50 m de extensão, curta em comparação ao PCCA tradicional, com a finalidade de simular paradas e terminais de ônibus - locais de grande interesse para a infraestrutura pública. A tese aqui apresentada conclui este projeto de pesquisa iniciado em 2010. Como o objetivo inicial deste estudo foi o desenvolvimento de recomendações de projeto coerentes, confiáveis e intuitivas para a utilização do PCCA no Brasil, foi necessário um profundo entendimento de suas peculiaridades estruturais e de desempenho. Para isso, o processo de fissuração das secções experimentais foi acompanhado durante sete anos. Devido à curta extensão e falta de ancoragem das seções, o PCCA \"curto\" apresentou um padrão de fissuração diferente do PCCA tradicional com muito menos fissuras visíveis na superfície do que o esperado. Para abordar esta questão, uma nova tecnologia ultrassônica para ensaios não destrutivos de estruturas de concreto foi aplicada. Pela interpretação do sinal de ultrassom, foi possível descobrir várias fissuras incipientes (não visíveis) dentro das placas - muitas dessas foram observadas na superfície da placa em levantamentos de fissuras posteriores - e caracterizar fissuras visíveis e não-visíveis quanto à profundidade da fissura. O mapa de fissuração atualizado com fissuras não visíveis mostrou semelhanças com PCCA tradicional. Além disso, a análise dos dados de ultrassom forneceu informações importantes sobre a variação da espessura, localização da armadura longitudinal e condição do concreto, que foram aplicados em simulações teóricas (software de elementos finitos) do PCCA curto. Simulações foram propostas considerando diferentes geometrias, primeiramente com fissuras transversais como juntas com alta eficiência de transferência de carga (LTE) e posteriormente com uma placa contínua, sem fissuras ou juntas. Esta última simulação foi mais precisa alcançando um fator de conversão entre tensões de campo e simuladas na ordem de 0,7 a 1,0. Dados de deflexão e análise de LTE em fissuras e placas entre fissuras atestaram novamente o comportamento contínuo das placas, o que vai em contradição com os modelos atuais de dimensionamento e de previsão de desempenho para o PCCA. Ademais, o tráfego crítico e condições de carga ambiental correspondentes ao clima e tráfego de ônibus típicos brasileiros foram investigados e relacionados usando um modelo de fadiga resultando em recomendações de projeto para o PCCA de curta extensão sendo direcionado para projetos de longo prazo para mais de 20 anos de operação. O gráfico de projeto foi aplicado com sucesso para investigar três falhas apresentadas pelo PCCA curto experimental devido a deficiências de espessura apontadas pelo teste ultrassônico.

La capacité actuelle d’accéder à des détecteurs très performants et de faible coût amène la communauté des concepteurs de systèmes optiques à un changement de paradigme. Plutôt que de réaliser des caméras généralistes, aptes à réaliser un grand nombre de missions d’observation différentes, il est maintenant de plus en plus courant de développer des systèmes imageurs adaptés à une seule mission et/ou à une seule classe d’objets. Prendre en compte ces connaissances a priori sur la scène et la mission, au moment de la conception, permet d’envisager des systèmes plus simples, mais aussi dotés de nouvelles compétences. L'objectif de la thèse est d'explorer les potentialités des tableaux non diffractants pour la conception de systèmes imageurs spécialisés. Pour cette étude nous considérons l'environnement des drones aéroportés de faible capacité d'emport pour lesquels les systèmes imageurs embarqués doivent être simples et robustes. Nous considérons de plus que la mission du système imageur est de détecter les obstacles. Pour cela, il doit délivrer une information 3D sur la scène observée. Dans un premier temps, j'ai analysé les propriétés d'imagerie du système imageur constitué d'un composant non diffractant et d'un détecteur matriciel. L'analyse comparative de deux composants, l'axicon et le tableau non diffractant, m'a permis de montrer que c'est le second composant qui est le mieux adapté pour remplir ce type de mission. J'ai ensuite réalisé un système imageur de démonstration, ce qui m'a permis au final de mettre en évidence sa capacité à faire de l'imagerie 3D. Cette étude a montré que les tableaux non diffractants ont un très fort potentiel pour réaliser un système imageur simple, robuste et dédié à l'imagerie 3D. Ce travail doit être poursuivi en partenariat avec des industriels pour appliquer la démarche de conception à une mission précise et transformer ce travail théorique en un système industrialisable. / Currently, detectors with high performances and a low cost are available and lead the community of optical designers to a new paradigm. Instead of designing generalist cameras, suitable for fulfilling a high number of different observation missions, it is now more and more common to develop imaging systems adapted to a unique mission and/or a unique object class. Taking this a priori knowledge on the observed scene or on the mission into account, at the beginning of the design process, allows us to consider simpler imaging systems with new properties. The aim of this thesis is to investigate the possibilities of nondiffracting array for the design of specialized imaging systems. For this study we consider the environment of unmanned aerial vehicles with a small payload capacity, for which embedded imaging systems must be simple and robust. We consider in addition that the mission of the imaging system is to detect obstacles. To do this, it must provide a 3D information on the observed scene. At first, I have analysed the properties of the imaging system composed by a nondiffracting optical device and a focal plane array. The comparison between two devices, axicon and nondiffracting arrays, allowed me to show that the second one is best suited for achieving this kind of mission. Then, I have made a practical implementation of such an imaging system. Finally, I have used it to demonstrate the 3D imaging property. This study has demonstrated the potential of nondiffracting array to design a simple and robust imaging system dedicated to 3D imaging. This work must be continued in partnership with the industry to apply the co-design process to a more precise mission, transforming this way this theoretical work into an industrial prototype.

Continuously reinforced concrete pavement (CRCP) is a portland cement concrete (PCC) pavement structure with a continuous longitudinal steel layout. CRCP is forming a major portion of PCC roadway systems in the state of Texas due to its low life cycle cost, ease of maintenance, and durable nature. While the overall performance of CRCP is proven to be excellent, some performance problems are still found as a form of distresses such as punchout and spalling. The current pavement design guide states that these distresses are closely related with the early-age behavior characteristics of CRCP, and various measures are underway to develop to improve the long-term performance of CRCP in terms of initial material design and use, structural design, and quality control. Understanding the current issues that pavement engineers and researchers face, the primary objective of this dissertation research focuses on sound understanding of the early-age structural behavior characteristics of CRCP and its effect on the long-term performance to provide reliable design and analysis criteria for CRCP. To achieve this main objective, characterizing the early-age structural response in CRCP was a core task of this study. For this purpose, a zero-stress temperature (ZST), one of the design and construction variables considered to have most significant effects on CRCP behavior and performance, was evaluated. As a beginning point of the entire framework, a series of field experiments were conducted in four new PCC pavement construction projects in the state of Texas to evaluate the actual structural response in early-age CRCP since a laboratory experiment would have a critical limitation in simulating the restraint conditions that exist in actual CRCP. To expand this core task to various parametric categories, a computer-aided parametric simulation was performed using valid numerical models. Based on data sets obtained from the parametric investigation, a statistical model to quantify the early-age structural response of CRCP was proposed to implement in codes of practice and pavement design guides. A secondary task was to identify a correlation between the early-age structural response and the long-term performance of CRCP structures. Since the experimental and analytical investigations tended to provide quite localized information for the time-dependent behavior of CRCP, the overall performance of CRCP could not be properly identified solely based on those results. To overcome this limitation, extensive field condition surveys were performed in seven different old CRCP sections with known material and early-age temperature history to find the implications of early-age behavior characteristics on the long-term performance of CRCP from a macroscopic point of view. It is expected that this research effort will provide pavement engineers and researchers with useful information to understand the actual time-dependent behavior of CRCP and a solid foundation to improve the sustainability of CRCP structures. / text

O pavimento de concreto continuamente armado (PCCA) é caracterizado pela presença de uma alta taxa de armadura longitudinal localizada acima do meio da placa; essa armadura possibilita ao pavimento uma placa de concreto sem juntas. Diferentemente do pavimento de concreto simples, no PCCA não há uma indução da fissuração; as fissuras ocorrem de maneira aleatória, porém são mantidas fortemente apertadas pela armadura longitudinal proporcionando uma estrutura de alta durabilidade exigindo o mínimo de manutenção. Perante tais benefícios, decidiu-se construir quatro seções experimentais deste pavimento no campus da Universidade de São Paulo. A maior diferença entre o PCCA experimental e aqueles encontrados na literatura técnica é a extensão; com o intuito de simular uma parada de ônibus, cada seção possui 50 metros de comprimento, curtas em comparação com os até 400 metros de comprimento encontrados em PCCA tradicionais. Para analisar o comportamento do pavimento foram esquematizados três estudos de desempenho: levantamentos de fissuras; testes de deformação com provas de carga dinâmicas (PCD) com um caminhão carregado; e testes de deflexões com o Falling Weight Deflectometer (FWD). A análise da fissuração mostra um comportamento bastante distinto daquele encontrado em PCCA tradicionais; a curta extensão, aliada à falta de ancoragem da placa, resultou em uma fissuração bastante tardia e em um elevado espaçamento entre fissuras. A seção 1, não apresenta, até esta data (dezembro de 2013), nenhuma fissura. A pouca fissuração sugeriu a hipótese de que as fissuras estariam invisíveis a olho nu em função do forte efeito de amarração das barras longitudinais. Entretanto, apesar de tais diferenças, o estudo das tensões através das deformações obtidas pelos strain gauges nas PCD apontam um desempenho estrutural adequado do pavimento; as tensões de tração na flexão resultaram em valores bastante inferiores à resistência do concreto, assegurando a qualidade da placa. Além destas afirmações, as PCD possibilitaram uma série de análises de tensões com configurações de carregamento diferentes. O estudo de deflexões mostrou que nas proximidades da borda longitudinal do pavimento, as deflexões são maiores devido à falta de ancoragem do sistema; no centro as deflexões foram típicas de pavimentos de concreto. A retroanálise das bacias de deflexão resultou em valores de módulo de elasticidade e módulo de reação do subleito baixos próximos à borda, reforçando o impacto da falta de ancoragem. A análise da eficiência de transferência de carga entre fissuras mostrou um desempenho altamente satisfatório de todas as fissuras, inclusive aquelas mais próximas das bordas, o que, novamente, certifica a integridade estrutural da placa. / The continuously reinforced concrete pavement (CRCP) is characterized by the presence of a high longitudinal reinforcement percentage located above the slabs middle; this steel allows a concrete slab without joints. Unlike jointed plain concrete pavements, the CRCP has no cracking induction; the cracks occur randomly, but are held strongly tight by the longitudinal steel, thus, providing a highly durable structure that requires minimal maintenance. Given these benefits, it was decided to build four experimental sections of this pavement on the University of São Paulo\'s campus. The biggest difference between the experimental CRCP and those found in the technical literature is the length; in order to simulate a bus stop, each section is 50 meters long, short compared to traditional PCCA up to 400 meters long. To analyze the behavior of the pavement, three performance studies were carried out: cracks surveys; strain tests with dynamic load tests (DLT) with a loaded truck; and Falling Weight Deflectometer (FWD) deflection testing. The analysis shows that the cracking pattern is quite distinct from that found in traditional PCCA, the short extension, coupled with the slabs lack of anchorage, resulted in a late cracking development and in large crack spacing. Section 1, has yet to develop any cracks. The low cracking suggested the hypothesis that the cracks were invisible to the naked eye due to the longitudinal bars strong binding effect. However, despite these differences, the stress study through strains obtained by strain gauges in DLT indicate an appropriate structural performance of the pavement, the flexural tensile stresses resulted in values well below the concretes strength, ensuring the slabs quality. Also, the DLT enable a series of stresses analysis with different load configurations. The deflection study showed that in the longitudinal edges vicinity, deflections are higher due to lack of any anchorage system; the center deflections are typical concrete pavement ones. The deflection basins backcalculation resulted in values of elasticity modulus of concrete and modulus of subgrade reaction lower near the edge, reinforcing the impact of the lack of anchorage. The analysis of the load transfer efficiency across cracks showed highly satisfactory performance of all cracks, including those nearest to the edge, which certifies the structural integrity of the slab.