#Tutorial de proteus 8 software#
#Tutorial de proteus 8 professional#
#Tutorial de proteus 8 windows#

When applying temperature modulation, which is available for the TG 209 F1 Libra ®, TG 209 F3 Tarsus ®, DSC 214 Polyma, DSC 204 F1 Phoenix ®, DSC 3500 Sirius, DSC 404 F1 Pegasus ®, STA 449 F1 Jupiter ® (TM-DSC), STA 449 F3 Jupiter ® (TM-DSC), DIL 402 Expedis Select, DIL 402 Expedis Supreme and TMA 402 F1 Hyperion ® (for TMA and DIL, beginning with the 7 th generation of the Proteus ® software), the linear heating rate is superimposed by a sinusoidal temperature change. For comparison purposes, any measurement curves can even be superimposed onto each other – even those of differing types. The various hits on the list can be integrated into the evaluation graphs with a single click of the mouse. When using Identify, a hit list is produced – of the type known, for example, in spectroscopy. The NETZSCH libraries supplied include more than 1,300 entries from the application fields of polymers, organics, food, pharma, metals/alloys, ceramics and inorganics, as well as the chemical elements. With a single click, experimental curves (even ones that are not yet evaluated) can thus be checked for agreement with stored individual curves, literature data or statistical classes. Via database comparisons, it only takes a few seconds for Identify to identify and classify materials. The specific heat capacity is related to a unit mass of the specimen.cp curves).

#Tutorial de proteus 8 software#

In the field of thermal analysis, Identify is the only software of its kind (beginning with Proteus ®® version 7.1 applicable to DSC, TGA, DIL, TMA and Specific Heat Capacity (cp) Heat capacity is a material-specific physical quantity, determined by the amount of heat supplied to specimen, divided by the resulting temperature increase.

#Tutorial de proteus 8 windows#

O mais recente lançamento, Proteus ® 7.0 (que também roda em Windows 8.1), inclui uma riqueza de novas funcionalidades e atualmente está disponível apenas para o DSC 214 Polyma. O Proteus ® 6.1 é a solução geral de software para todos os instrumentos de análise térmica NETZSCH. Para os métodos de medição e avaliação avançados, pacotes de software adicionais estão disponíveis. Mesmo a versão básica do software Proteus ® ® apresenta todos os critérios funcionais esperados de medição e de avaliação para quaisquer métodos de Análise Térmica. O software Proteus ® ® está licenciado com o instrumento e pode, naturalmente, ser instalado em outros sistemas de computadores.

#Tutorial de proteus 8 professional#

Finally, as a conclusion to this research, it has been achieved to design and develop a resistivimeter to perform geoelectric measurements, with efficient characteristics, safe, economical and easy to use.O software Proteus ® ® funciona em Windows ® (XP Professional / Windows ® 7/Ultimate/32-, 64-bit) e inclui tudo o que você precisa para realizar a medição e avaliar os dados resultantes de forma autônoma.įácil de entender menus e rotinas automatizadas fazem deste software, uma ferramenta que é extremamente amigável, mesmo permitindo análises sofisticadas. In addition, it has the ability to perform Resistivity Electrical Tomography (ERT) of up to 10 levels of investigation. As a result of the application in the resistivimeter field, the equipment has the capacity to perform vertical electrical soundings (SEV), the data measurements in millivolts (mV) and milliamperes (mA). The other module is the receiver (RX) that performs the measurements of the potential difference (ΔV) and the induced current in the ground (I), which is displayed on a liquid crystal display (LCD).

As a result of this research, we have managed to build a resistivimeter, which consists of 2 internal modules: One is the controlled direct current (DC) transmitter (TX) with the specifications: 12 V input voltage, 350 V output voltage, output current up to 1A maximum. As a final phase of the methodology, it is the observation of the readings of the potential difference (ΔV) and the induced current (I) in the terrain. This is supported by geophysical concepts, in order to establish the function parameters appropriate to the designed equipment. The methodology used was guided by the following design process proposed by Haik and Shahin (2003): Which involves the analysis of the important technical specifications of a commercial team, main functions of a team, generation of concepts and the construction of the prototype. The aim of this research is to design and build a resistivitimeter that can perform resistivity electrical prospecting studies, which allows to calculate the resistivity of the subsoil (ρ) through the measurements of potential difference (ΔV) and induced current in the underground (I).