or "Peripheral Interface Controller. PIC16F877A Microcontroller Description: In the PIC16F877A, the PIC is stand for Peripheral Interface Controller, 16 denotes the one of the series of PIC and F Denotes in system programmable Flash. PIC16F877A is 8-bit low power CMOS microcontroller. The PIC16F877A is based on HIGH performance RISC architecture. High performance RISC architecture has ONLY 35 simple word instructions. PIC16F877A is based on modified Harvard Architecture. In modified Harvard Architecture
shows, the D6T series sensors consist of a cap with silicon lens, MEMS thermopile sensor chips and dedicated analog circuit and a logic circuit for digital temperature value generation. Figure 1. Omron D6T thermal sensor structure Until now D6T has only 2 types which are D6T-44L-06 and D6T-8L-06. The main differences are D6T-44L-06 has 16 pixel elements while D6T-8L-06 has only 8 pixel elements which means they also have different field of view. In this thesis work, we use D6T-44L-06 for thermal
also, the load will be in ON condition. The aim of this project is to construct a single phasing monitor and prevention system using 8bit microcontroller. Anti-single phasing relays or single phasing preventer are required for critical loads and circuits. These are required because the normal overload protection doesn't trip on time. For large air-conditioning compressors, irrigation pumps these are sometimes, included. The purpose of this project is to develop an intelligent system that continuously
Block diagram description From the figure 1 the system consists of different modules which are interfaced to the ARM (32 bit) controller. The input power is step down to 12v DC from 230v AC power line by the power supply unit. The main module is the ARM controller which provides high speed processing of the data because of the pipelining technique and ability to be used as a 16 bit controller called Thumb. The main advantage of using this controller is its better performance with high code density.
there are always tasks for robots to perform, therefore there are many different types of robots that could be designed. In recent years, the rise of popularity of the single-chip microcomputer and the drastic reductions in size and cost of integrated circuits have opened up wide field areas of creating intelligent systems . However, building a robot requires more expertise than simple programming where the designers should own compendium of basic skills fiom various fields such as mechanical
in design is concluded using Questa Sim simulator and functional coverage analysis in verification is concluded using Riviera simulator. In paper  comparison between the System Verilog and UVM verification environment is done. The Inter Integrated Circuit (I2C) Master Core is the Design Under Test (DUT). The environment is created using System Verilog and UVM and completely wraps the DUT. The assertion coverage found is 100% from both approaches and functional coverage is found as 99.21% and