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Introduction to programming in Python

Some basic information about the module

Cycle of education: 2019/2020

The name of the faculty organization unit: The faculty Mathematics and Applied Physics

The name of the field of study: Engineering and data analysis

The area of study: sciences

The profile of studing:

The level of study: first degree study

Type of study: full time

discipline specialities :

The degree after graduating from university: engineer

The name of the module department : Department of Complex Systems

The code of the module: 12313

The module status: mandatory for teaching programme

The position in the studies teaching programme: sem: 5 / W15 P15 / 2 ECTS / Z

The language of the lecture: Polish

The name of the coordinator 1: Andrzej Paszkiewicz, PhD, Eng.

office hours of the coordinator: https://paszkiewicz.v.prz.edu.pl/consultation

The name of the coordinator 2: Marek Bolanowski, PhD, Eng.

office hours of the coordinator: https://bolanowski.v.prz.edu.pl/konsultacje

The aim of studying and bibliography

The main aim of study: The main goal of education on the module is to present the basics of the Python programming language and the possibilities of using it, among others for data analysis and visualization.

The general information about the module: The lecture discusses Python. It presents the object-oriented character of the language. He discusses its various fields of application, including very important in the field of data analysis and visualization.

Teaching materials: MS Temams - kanał przedmiotu

Bibliography required to complete the module
Bibliography used during lectures
1 Michael Dawson Python dla każdego. Podstawy programowania. Wydanie III Helion. 2014
2 Alberto Boschetti, Luca Massaron Python. Podstawy nauki o danych. Wydanie II Helion. 2017
3 Rob Miles Python. Zacznij programować! Helion. 2018
Bibliography used during classes/laboratories/others
1 Mark Lutz Python. Wprowadzenie. Helion. 2020

Basic requirements in category knowledge/skills/social competences

Formal requirements: The student should know the basic issues in the field of algorithms, data structures and programming. The student knows mathematics. The student satisfies the formal requirements set out in the study

Basic requirements in category knowledge: The student should be able to use mathematical knowledge to formulate and solve simple programming tasks.

Basic requirements in category skills: The student should be able to write a simple computer program.

Basic requirements in category social competences: The student should be able to work individually and in a team, present the results of the work on the group forum as well as in written form.

Module outcomes

MEK The student who completed the module Types of classes / teaching methods leading to achieving a given outcome of teaching Methods of verifying every mentioned outcome of teaching Relationships with KEK Relationships with PRK
01 Knows how to use the Python language to create general-purpose and specialized programs. Lecture, Project Written test or oral exam, project presentation K_W06+
K_W08+
K_W09+
K_U25+
K_K01+
K_K04+
P6S_KK
P6S_KO
P6S_KR
P6S_UU
P6S_WG
02 Knows the basic data structures and operators available in the Python language. Lecture, Project Written test or oral exam, project presentation K_W06+
K_W08+
K_U13+
K_K03+
P6S_KO
P6S_KR
P6S_UW
P6S_WG
03 Has basic knowledge and can apply simple I/O operations. Lecture, Project Written test or oral exam, project presentation K_W06+
K_W08+
K_U10+
K_U13+
K_K03+
P6S_KO
P6S_KR
P6S_UW
P6S_WG
04 Has basic knowledge and can define and call simple functions. Lecture, Project Written test or oral exam, project presentation K_W06+
K_W08+
K_U06+
K_U07+
K_U10+
K_U13+
K_K03+
P6S_KO
P6S_KR
P6S_UW
P6S_WG
05 Knows and understands the meaning of exceptions and errors in software and knows how to handle selected exceptions. Lecture, Project Written test or oral exam, project presentation K_W06+
K_W08+
K_U13+
K_K03+
P6S_KO
P6S_KR
P6S_UW
P6S_WG
06 Knows and understands the importance of object-oriented programming. Lecture, Project Written test or oral exam, project presentation K_W06+
K_W08+
K_U10+
K_U13+
K_K03+
P6S_KO
P6S_KR
P6S_UW
P6S_WG
07 Analyzes existing programs and makes modifications for new functionality. Lecture, Project Written test or oral exam, project presentation K_W06+
K_W08+
K_U06+
K_U07+
K_U10+
K_U13+
K_K03+
P6S_KO
P6S_KR
P6S_UW
P6S_WG

Attention: Depending on the epidemic situation, verification of the achieved learning outcomes specified in the study program, in particular credits and examinations at the end of specific classes, can be implemented remotely (real-time meetings).

The syllabus of the module

Sem. TK The content realized in MEK
5 TK01 Organizational classes. Establishing the form of assessment and the scope of material. Getting acquainted with the rules of project realization and presentation. W01, P
5 TK02 Introduction to the Python language. Areas of application of the Python language. Tools and work environment. Principle of interpreter operation. W02, P MEK01
5 TK03 Operators and variables in the Python language and examples of their use. W03, P MEK02
5 TK04 The use of loops in the Python language. Structure and meaning of lists, sorting and examples of their advanced use. W04, P MEK02
5 TK05 Creating functions, scopes, and using libraries. W05, P MEK03 MEK04
5 TK06 Use of modules, code errors, and exception handling. W06, P MEK05
5 TK07 The concept of object-oriented programming. Classes and methods in the Python language. W07, P MEK06
5 TK08 File handling and processing. Examples of specialized applications in Python language. W08, P MEK03 MEK07

The student's effort

The type of classes The work before classes The participation in classes The work after classes
Lecture (sem. 5) contact hours: 15.00 hours/sem.
complementing/reading through notes: 15.00 hours/sem.
Project/Seminar (sem. 5) contact hours: 15.00 hours/sem..
Advice (sem. 5) The participation in Advice: 2.00 hours/sem.
Credit (sem. 5) The preparation for a Credit: 7.00 hours/sem.
The oral credit: 1.00 hours/sem.

The way of giving the component module grades and the final grade

The type of classes The way of giving the final grade
Lecture The lecture ends with an oral exam.
Project/Seminar Each student performs the design task in groups of up to 3 person. Students report the/presenting progress of design work on the design classes and consultation activities. The project is evaluated on the basis of the final presentation.
The final grade The final grade is given as arithmetic mean of the final exam and project.

Sample problems

Required during the exam/when receiving the credit
(-)

Realized during classes/laboratories/projects
(-)

Others
(-)

Can a student use any teaching aids during the exam/when receiving the credit : no

The contents of the module are associated with the research profile: yes

1 M. Bolanowski; C. Ćwikła; M. Ganzha; M. Hodoň; M. Paprzycki; A. Paszkiewicz Multifunctional clustering based on the LEACH algorithm for edge-cloud continuum ecosystem 2024
2 A. Bazan; G. Budzik; J. Cebulski; M. Dębski; T. Dziubek; J. Józwik; A. Kawalec; M. Kiełbicki; Ł. Kochmański; I. Kuric; M. Oleksy; A. Paszkiewicz; P. Poliński; P. Turek Geometrical Accuracy of Threaded Elements Manufacture by 3D Printing Process 2023
3 A. Bełzo; M. Bolanowski; A. Dzierwa; A. Paszkiewicz; M. Salach Application of VR Technology in the Process of Training Engineers 2023
4 A. Paszkiewicz; B. Pawłowicz; M. Salach; K. Siwiec; K. Strzępek; B. Trybus Quantitative and Qualitative Analysis of Agricultural Fields Based on Aerial Multispectral Images Using Neural Networks 2023
5 K. Bogacka; M. Bolanowski; A. Danilenka; A. Dąbrowska; M. Ganzha; M. Kobus; M. Paprzycki; A. Paszkiewicz; K. Rachwał; P. Sowiński Frugal Heart Rate Correction Method for Scalable Health and Safety Monitoring in Construction Sites 2023
6 M. Bolanowski; A. Kraska; A. Paszkiewicz; M. Salach; J. Więcek Network Aspects of Remote 3D Printing in the Context of Industry as a Service IDaaS 2023
7 M. Bolanowski; A. Paszkiewicz; G. Piecuch; D. Rączka; M. Salach; T. Żabiński Estimation of Tool Life in the Milling Process—Testing Regression Models 2023
8 M. Bolanowski; A. Paszkiewicz; G. Piecuch; M. Salach; K. Tomecki; T. Żabiński System Architecture for Diagnostics and Supervision of Industrial Equipment and Processes in an IoE Device Environment 2023
9 M. Bolanowski; G. Budzik; N. Cierpicki; M. Ganzha; M. Paprzycki; A. Paszkiewicz; M. Salach; J. Woźniak; D. Wydrzyński Use of virtual reality to facilitate engineer training in the aerospace industry 2023
10 M. Bolanowski; H. Mazur; A. Paszkiewicz Use of Traffic Sampling in Anomaly Detection for High-Throughput Network Links 2023
11 M. Bolanowski; M. Ganzha; A. Gerka; M. Paprzycki; A. Paszkiewicz Application of Genetic Algorithm to Load Balancing in Networks with a Homogeneous Traffic Flow 2023
12 M. Bolanowski; M. Ganzha; J. Kumar; C. Palau; M. Paprzycki; A. Paszkiewicz; W. Pawłowski; J. Samriya; B. Solarz-Niesłuchowski; I. Úbeda; K. Wasielewska-Michniewska Towards 6G-Enabled Edge-Cloud Continuum Computing – Initial Assessment 2023
13 A. Bădică; C. Bădică; M. Bolanowski; S. Fidanova; M. Ganzha; S. Harizanov; M. Ivanovic; I. Lirkov; M. Paprzycki; A. Paszkiewicz; K. Tomczyk Cascaded Anomaly Detection with Coarse Sampling in Distributed Systems 2022
14 G. Budzik; A. Nikodem; A. Paszkiewicz; M. Salach; D. Strzałka; M. Witek; H. Wójcik VR Education Support System—A Case Study of Digital Circuits Design 2022
15 G. Budzik; J. Cebulski; M. Dębski; T. Dziubek; J. Jóźwik; A. Kawalec; M. Kiełbicki; Ł. Kochmański; I. Kuric; M. Oleksy; A. Paszkiewicz; P. Poliński; P. Turek Strength of threaded connections additively produced from polymeric materials 2022
16 G. Budzik; K. Bulanda; D. Filip; J. Jabłoński; A. Łazorko; M. Oleksy; A. Paszkiewicz; Ł. Przeszłowski; J. Sęp; S. Snela; P. Turek; S. Wolski Manufacturing Polymer Model of Anatomical Structures with Increased Accuracy Using CAx and AM Systems for Planning Orthopedic Procedures 2022
17 G. Budzik; M. Oleksy; R. Oliwa; A. Paszkiewicz; Ł. Przeszłowski; B. Sobolewski; M. Wieczorowski; J. Woźniak The Place of 3D Printing in the Manufacturing and Operational Process Based on the Industry 4.0 Structure 2022
18 G. Budzik; T. Dziubek; P. Fudali; A. Paszkiewicz; Ł. Przeszłowski; J. Woźniak Analysis of the quality of products manufactured with the application of additive manufacturing technologies with the possibility of applying the Industry 4.0 conception 2022
19 M. Bolanowski; C. Ćwikła; M. Ganzha; C. Palau; M. Paprzycki; A. Paszkiewicz; I. Úbeda Network Load Balancing for Edge-Cloud Continuum Ecosystems 2022
20 M. Bolanowski; G. Budzik; M. Ganzha; F. Konstantinidis; C. Palau; M. Paprzycki; A. Paszkiewicz; M. Salach; H. Wójcik Implementation of UI Methods and UX in VR in Case of 3D Printer Tutorial 2022
21 M. Bolanowski; M. Ganzha; I. Lacalle; C. Palau; M. Paprzycki; A. Paszkiewicz; P. Sowiński; K. Żak Eficiency of REST and gRPC Realizing Communication Tasks in Microservice-Based Ecosystems 2022
22 M. Bolanowski; M. Ganzha; M. Kumar; J. Kumar Samriya; M. Paprzycki; A. Paszkiewicz An Energy Aware Clustering Scheme for 5G-Enabled Edge Computing Based IoMT Framework 2022
23 M. Bolanowski; P. Krogulski Rapid remote access system for heterogeneous laboratory resources 2022
24 A. Paszkiewicz Modeling and Analysis of Anomalies in the Network Infrastructure Based on the Potts Model 2021
25 A. Paszkiewicz; B. Pawłowicz; M. Salach; B. Trybus Traffic Intersection Lane Control Using Radio Frequency Identification and 5G Communication 2021
26 G. Budzik; K. Bulanda; M. Magniszewski; M. Oleksy; R. Oliwa; A. Paszkiewicz; Ł. Przeszłowski Torsional strength tests of spline connections made of polymer materials (Rapid communication) 2021
27 G. Budzik; M. Dębski; T. Dziubek; A. Paszkiewicz; Ł. Przeszłowski; J. Woźniak Methodology for the Quality Control Process of Additive Manufacturing Products Made of Polymer Materials 2021
28 G. Budzik; M. Kiełbicki; A. Paszkiewicz; P. Poliński; M. Przytuła Analiza rozwiązań zdalnych aplikacji sterowania i monitoringu procesu druku 3D 2021
29 J. Dajda; W. Dzwinel; B. Hnatkowska; M. Idzik; P. Jabłecki; W. Kania; E. Majerz; M. Malawski; A. Pasternak; A. Paszkiewicz; W. Pawłowski; M. Sikora; M. Smołka; J. Sroka; F. Ślazyk; J. Świebocka-Więk; W. Thomas Current Trends in Software Engineering Bachelor Theses 2021
30 M. Bolanowski; A. Kraska; A. Paszkiewicz Integration of the elements of a distributed IT system with a computer network core using island topology 2021
31 M. Bolanowski; A. Paszkiewicz Sustainable development in the field of IoT-focused network engineer education based on simulation tools 2021
32 M. Bolanowski; A. Paszkiewicz; B. Rumak Coarse Traffic Classification for High-Bandwidth Connections in a Computer Network Using Deep Learning Techniques 2021
33 M. Bolanowski; G. Budzik; M. Kiełbicki; Ł. Kochmański; A. Paszkiewicz; P. Poliński; M. Przytuła; J. Woźniak Incremental processing of polymer materials using the INDUSTRY 4.0 network structure 2021
34 M. Bolanowski; G. Budzik; P. Dymora; P. Kubiak; A. Paszkiewicz; M. Salach Methodology of Implementing Virtual Reality in Education for Industry 4.0 2021
35 A. Paszkiewicz; J. Węgrzyn Responsiveness of the Sensor Network to Alarm Events Based on the Potts Model 2020
36 G. Budzik; J. Jóźwik; M. Oleksy; A. Paszkiewicz; P. Turek; J. Woźniak; D. Żelechowski Analysis of Wear of the Polymer Mold in the Production of Wax Casting Models of Aircraft Engine Blades 2020
37 G. Budzik; J. Jóźwik; Ł. Kochmański; M. Oleksy; A. Paszkiewicz; Ł. Przeszłowski; J. Sęp; P. Turek; D. Żelechowski An Analysis of the Casting Polymer Mold Wear Manufactured Using PolyJet Method Based on the Measurement of the Surface Topography 2020
38 K. Iwaniec; A. Paszkiewicz Evolutionary approach based on the ising model to analyze changes in the structure of the IT networks 2020
39 M. Bolanowski; A. Paszkiewicz Software for Integration of Manufacturing Resources in the Hybrid Cloud Model for Industry 4.0 2020
40 M. Bolanowski; G. Budzik; M. Oleksy; A. Paszkiewicz; T. Pisz; Ł. Przeszłowski; P. Sowa Remote Design and Manufacture through the Example of a Ventilator 2020
41 M. Bolanowski; G. Budzik; M. Oleksy; A. Paszkiewicz; Ł. Przeszłowski Process of Creating an Integrated Design and Manufacturing Environment as Part of the Structure of Industry 4.0 2020
42 P. Dymora; A. Paszkiewicz Performance Analysis of Selected Programming Languages in the Context of Supporting Decision-Making Processes for Industry 4.0 2020
43 A. Paszkiewicz; R. Pękala; J. Węgrzyn Możliwości zastosowania oprogramowania Scilab do projektowania i modelowania sieci komputerowych 2019
44 K. Iwaniec; A. Paszkiewicz Use of ising model for analysis of changes in the structure of the IT network 2019
45 M. Bolanowski; A. Paszkiewicz; P. Zapała Phase Transitions in Wireless MESH Networks and Their Application in Early Detection of Network Coherence Loss 2019
46 M. Bolanowski; G. Budzik; D. Mazur; M. Oleksy; A. Paszkiewicz Analysis of possible SDN use in the rapid prototyping process as part of the Industry 4.0 2019
47 M. Bolanowski; G. Budzik; M. Oleksy; A. Paszkiewicz Przemysł 4.0 cz. II. Uwarunkowania w obszarze technologii wytwarzania i architektury systemu informatycznego w przetwórstwie tworzyw polimerowych 2019
48 M. Bolanowski; P. Dymora; B. Kowal; M. Mazurek; M. Salach Raport dotyczący: analizy uwarunkowań technicznych wdrażania technologii VR w dydaktyce na kierunkach automatyka i robotyka oraz informatyka prowadzonych przez WEiI z potencjalnymi zastosowaniami dla Przemysłu 4.0 2019