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Main aim of the project is to develop a robot used for industrial, military and general purpose inspection. Visual feedback from the robot is taken with the help of a camera interfaced with raspberry pi which transmits data to the laptop wirelessly through Wi-Fi. The robot will be controlled with a wireless joystick for locomotion and the movement of the camera(mountedon a servo) along the vertical axes using RF module(range of at least 500m).It can be used for inspecting those areas where human reach is not feasible. In our project, we are inspecting the vicinity of the area where the user is controlling the robot. But if we want to inspect remote areas, then we will require something through which we can access the remote areas so that we can monitor the surrounding which will be far from where we are accessing it. The idea can be viewed as a potential IoT application viz. Multimedia surveillance sensor networks wherein Telnet can be effectively used to connect to the Internet dynamically

Main aim of the project is to develop a robot used for industrial, military and general purpose inspection. Visual feedback from the robot is taken with the help of a camera interfaced with raspberry pi which transmits data to the laptop wirelessly through Wi-Fi. The robot will be controlled with a wireless joystick for locomotion and the movement of the camera(mountedon a servo) along the vertical axes using RF module(range of at least 500m).It can be used for inspecting those areas where human reach is not feasible. In our project, we are inspecting the vicinity of the area where the user is controlling the robot. But if we want to inspect remote areas, then we will require something through which we can access the remote areas so that we can monitor the surrounding which will be far from where we are accessing it. The idea can be viewed as a potential IoT application viz. Multimedia surveillance sensor networks wherein Telnet can be effectively used to connect to the Internet dynamically

Main aim of the project is to develop a robot used for industrial, military and general purpose inspection. Visual feedback from the robot is taken with the help of a camera interfaced with raspberry pi which transmits data to the laptop wirelessly through Wi-Fi. The robot will be controlled with a wireless joystick for locomotion and the movement of the camera(mountedon a servo) along the vertical axes using RF module(range of at least 500m).It can be used for inspecting those areas where human reach is not feasible. In our project, we are inspecting the vicinity of the area where the user is controlling the robot. But if we want to inspect remote areas, then we will require something through which we can access the remote areas so that we can monitor the surrounding which will be far from where we are accessing it. The idea can be viewed as a potential IoT application viz. Multimedia surveillance sensor networks wherein Telnet can be effectively used to connect to the Internet dynamically

Main aim of the project is to develop a robot used for industrial, military and general purpose inspection. Visual feedback from the robot is taken with the help of a camera interfaced with raspberry pi which transmits data to the laptop wirelessly through Wi-Fi. The robot will be controlled with a wireless joystick for locomotion and the movement of the camera(mountedon a servo) along the vertical axes using RF module(range of at least 500m).It can be used for inspecting those areas where human reach is not feasible. In our project, we are inspecting the vicinity of the area where the user is controlling the robot. But if we want to inspect remote areas, then we will require something through which we can access the remote areas so that we can monitor the surrounding which will be far from where we are accessing it. The idea can be viewed as a potential IoT application viz. Multimedia surveillance sensor networks wherein Telnet can be effectively used to connect to the Internet dynamically

Main aim of the project is to develop a robot used for industrial, military and general purpose inspection. Visual feedback from the robot is taken with the help of a camera interfaced with raspberry pi which transmits data to the laptop wirelessly through Wi-Fi. The robot will be controlled with a wireless joystick for locomotion and the movement of the camera(mountedon a servo) along the vertical axes using RF module(range of at least 500m).It can be used for inspecting those areas where human reach is not feasible. In our project, we are inspecting the vicinity of the area where the user is controlling the robot. But if we want to inspect remote areas, then we will require something through which we can access the remote areas so that we can monitor the surrounding which will be far from where we are accessing it. The idea can be viewed as a potential IoT application viz. Multimedia surveillance sensor networks wherein Telnet can be effectively used to connect to the Internet dynamically

Main aim of the project is to develop a robot used for industrial, military and general purpose inspection. Visual feedback from the robot is taken with the help of a camera interfaced with raspberry pi which transmits data to the laptop wirelessly through Wi-Fi. The robot will be controlled with a wireless joystick for locomotion and the movement of the camera(mountedon a servo) along the vertical axes using RF module(range of at least 500m).It can be used for inspecting those areas where human reach is not feasible. In our project, we are inspecting the vicinity of the area where the user is controlling the robot. But if we want to inspect remote areas, then we will require something through which we can access the remote areas so that we can monitor the surrounding which will be far from where we are accessing it. The idea can be viewed as a potential IoT application viz. Multimedia surveillance sensor networks wherein Telnet can be effectively used to connect to the Internet dynamically

Main aim of the project is to develop a robot used for industrial, military and general purpose inspection. Visual feedback from the robot is taken with the help of a camera interfaced with raspberry pi which transmits data to the laptop wirelessly through Wi-Fi. The robot will be controlled with a wireless joystick for locomotion and the movement of the camera(mountedon a servo) along the vertical axes using RF module(range of at least 500m).It can be used for inspecting those areas where human reach is not feasible. In our project, we are inspecting the vicinity of the area where the user is controlling the robot. But if we want to inspect remote areas, then we will require something through which we can access the remote areas so that we can monitor the surrounding which will be far from where we are accessing it. The idea can be viewed as a potential IoT application viz. Multimedia surveillance sensor networks wherein Telnet can be effectively used to connect to the Internet dynamically

Background: In rural India, most births take place in the home, where high-risk care practices are common. We developed an intervention of behaviour change management, with a focus on prevention of hypothermia, aimed at modifying practices and reducing neonatal mortality. Methods: We did a cluster-randomised controlled efficacy trial in Shivgarh, a rural area in Uttar Pradesh. 39 village administrative units (population 104?123) were allocated to one of three groups: a control group, which received the usual services of governmental and non-governmental organisations in the area; an intervention group, which received a preventive package of interventions for essential newborn care (birth preparedness, clean delivery and cord care, thermal care [including skin-to-skin care], breastfeeding promotion, and danger sign recognition); or another intervention group, which received the package of essential newborn care plus use of a liquid crystal hypothermia indicator (ThermoSpot). In the intervention clusters, community health workers delivered the packages via collective meetings and two antenatal and two postnatal household visitations. Outcome measures included changes in newborn-care practices and neonatal mortality rate compared with the control group. Analysis was by intention to treat. This study is registered as International Standard Randomised Control Trial, number NCT00198653. Findings: Improvements in birth preparedness, hygienic delivery, thermal care (including skin-to-skin care), umbilical cord care, skin care, and breastfeeding were seen in intervention arms. There was little change in care-seeking. Compared with controls, neonatal mortality rate was reduced by 54% in the essential newborn-care intervention (rate ratio 0?46 [95% CI 0?35?0?60], p

Background: In rural India, most births take place in the home, where high-risk care practices are common. We developed an intervention of behaviour change management, with a focus on prevention of hypothermia, aimed at modifying practices and reducing neonatal mortality. Methods: We did a cluster-randomised controlled efficacy trial in Shivgarh, a rural area in Uttar Pradesh. 39 village administrative units (population 104?123) were allocated to one of three groups: a control group, which received the usual services of governmental and non-governmental organisations in the area; an intervention group, which received a preventive package of interventions for essential newborn care (birth preparedness, clean delivery and cord care, thermal care [including skin-to-skin care], breastfeeding promotion, and danger sign recognition); or another intervention group, which received the package of essential newborn care plus use of a liquid crystal hypothermia indicator (ThermoSpot). In the intervention clusters, community health workers delivered the packages via collective meetings and two antenatal and two postnatal household visitations. Outcome measures included changes in newborn-care practices and neonatal mortality rate compared with the control group. Analysis was by intention to treat. This study is registered as International Standard Randomised Control Trial, number NCT00198653. Findings: Improvements in birth preparedness, hygienic delivery, thermal care (including skin-to-skin care), umbilical cord care, skin care, and breastfeeding were seen in intervention arms. There was little change in care-seeking. Compared with controls, neonatal mortality rate was reduced by 54% in the essential newborn-care intervention (rate ratio 0?46 [95% CI 0?35?0?60], p