English

Not applicable.

Students will be able to:
- Get a basic, in good engineering practice to use the knowledge and skills of the fiber sensor and optical fiber sensors,
- Discuss basic design concept of the measuring chain,
- To determine the optimal method of measurement,
- Define the measured data,
- Describe the process and evaluate the measured and
- And more.

Course graduate should get basic knowledges and facilities in sensor field and the most commonly measured non-electrical quantities, include measurement concept design and results process and evaluaiton.

Knowledge is required in the Bachelor's degree level (BMFV) and valid examination for qualifying workers for an independent activity (within the meaning of § 6 of the Decree).

Graduates who writes the course should be chopen:
- Describe different types (types of) sensors,
- Explain the modulation used in sensors,
- Describe and list the analog and digital sensors and measurement methods,
- Explain interference phenomena and the resulting possibilities
- Discuss and explain various types of interferometers
- Define and design the basic blocks measuring systems,
- Can measure basic physical quantities
- And discuss application possibilities, if necessary. more.

Those interested in the course should be equipped with the knowledge of basic physical and electrical principles.

Not applicable.

Teaching methods depend on the type of course unit as specified in the article 7 of BUT Rules for Studies and Examinations.

Evaluation laboratory 0 - 40
Written part of exam 0 - 40
Oral part of exam 0 - 20

Sensor field definition, different quantities description, exploitation in automation, robotics, defectoscopy and next fields. Etalons for different physical quantities, measurement channel, system, static and dynamic physical qüantities. Advatages of non-electrical measurements via electrcal methods. Sensor definition. Basic properties and requirements. Physical sensro principles.
Sensors nad measurements of position and dimensions.
Sensors nad measurements of velocity and acceleration (direct and angle).
Sensors nad measurements of forces, pressure and weight.
Sensors nad measurements of deformation and force moment.
Sensors nad measurements of vibrations, vibration analysis (defectoscopy)
Sensors nad measurements of temperature, warm, thermal flow.
Sensors nad measurements of humidity, level and flow.
Sensors nad measurements of emission (ultrasonic, light and infrared)
Sensors nad measurements of ionizating emission, material composition and living space parameters.
Sensors nad measurements in protection technology (monitoring, objects protection).
Sensors nad measurements of other quantities, special methods and circuits for physical quantities measurements. Fluidik sensors, biosensors and chemical sensors.
Instrumentation basic concepts, construction. Measurement systems for data collecting and acquisition (protocols, buses)

Not applicable.

The goal of this course is introduce the students to the basic principles of sensors, their theory, construction and gives them basic information for sensor design, construction and optimal applications. This course also introduces students with basic sensor problem areas (parasitic effects, calibration, diagnostics). The general goal of this course is an engineering knowledge of the sensor informatics.

The content and forms of instruction in the evaluated course are specified by a regulation issued by the lecturer responsible for the course and updated for every academic year.

Not applicable.

Not applicable.

ĎAĎO,S.-KREIDL,M.: Senzory a měřicí obvody. ČVUT Praha, 1996 (CS)
GÖPEL,W.-HESSE,J.-ZEMEL,J.,N.: Sensors A Comprehensive Survey. Volume 1-9. VCH Weinheim, ISBN 0-527-26769-7. (EN)
ZEHNULA,K.: Čidla robotů. Praha SNTL, 1990 (CS)
ZEHNULA,K.: Snímače neelektrických veličin, SNTL Praha, 1986 (CS)

Not applicable.