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CAD/CAM systems

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: Medical Engineering

The area of study: technical 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: inżynier

The name of the module department : Department of Mechanical Engineering

The code of the module: 12365

The module status: mandatory for teaching programme with the posibility of choice

The position in the studies teaching programme: sem: 4 / W15 L30 / 4 ECTS / Z

The language of the lecture: Polish

The name of the coordinator 1: Jacek Bernaczek, PhD, Eng.

The name of the coordinator 2: Dawid Wydrzyński, PhD, Eng.

The aim of studying and bibliography

The main aim of study: Introduction to the support and capabilities of CAD / CAM systems in the field of designing machine parts and programming numerically controlled machine tools

The general information about the module: The module discusses the basic techniques of part design with the possibilities of programming their machining in a CAD / CAM environment

Bibliography required to complete the module
Bibliography used during lectures
1 Pobożniak J. Programowanie obrabiarek sterowanych numerycznie w systemie CAD/CAM Catia Helion. 2014
2 Praca zbiorowa Programowanie obrabiarek CNC, frezowanie REA. 2013
3 Praca zbiorowa Programowanie obrabiarek CNC, toczenie REA. 2013
Bibliography used during classes/laboratories/others
1 Augustyn K. EdgeCAM, Komputerowe wspomaganie wytwarzania Helion. 2006
2 Habrat W. Obsługa i programowanie obrabiarek CNC KaBe. 2007
Bibliography to self-study
1 Przybylski W., Deja M. Komputerowo wspomagane wytwarzanie maszyn WNT. 2007

Basic requirements in category knowledge/skills/social competences

Formal requirements: Student status

Basic requirements in category knowledge: CAD computer systems - part modeling. The basics of machine technology - the technological process of machining parts

Basic requirements in category skills: Ability to work with literature and computer

Basic requirements in category social competences: Ability to work in a group and knowledge of the rules of the computer laboratory. The ability to independently broaden your knowledge and improve your professional skills

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 as elementary knowledge in the field of manufacturing engineering, production processes. He is able to use computer applications supporting production. Able to design the machining process of parts in a CAD / CAM system using the right machining cycles K_W05+
K_W11++
P6S_WG
02 Is able to design machining of parts in a CAD / CAM system using drilling, milling and turning cycles and to carry out machining simulations. He is able to work individually and in a team and is able to comply with the rules of working in a team. K_W05+
K_W11++
P6S_WG
03 Has elementary knowledge of the design of typical parts. He can create simple solid models and assemblies. He can make technical documentation based on models and assemblies. K_W05+
K_W11++
P6S_WG
04 He can use CAD / CAM tools in solving engineering problems. He can use selected computer applications to support the design and manufacture of machine parts. K_W05++
K_W11+
K_U03+
K_U12+++
K_U16+
K_K01++
K_K05+
P6S_KK
P6S_KO
P6S_UO
P6S_UU
P6S_UW
P6S_WG
05 Has in-depth knowledge in the field of engineering support K_W05++
K_W11+++
K_U16+
K_K01++
K_K05++
P6S_KK
P6S_KO
P6S_UO
P6S_UU
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
4 TK01 Introduction to CAD/CAM systems W01, W02 MEK01 MEK05
4 TK02 Principles of designing typical machine parts in CAD systems W03, W04, MEK01 MEK05
4 TK03 Programming of numerically controlled machine tools W05,W06, W07 MEK01 MEK05
4 TK04 Summary. Examination W08 MEK01 MEK05
4 TK05 Introduction to the CAD environment. Drawing in sketchbook - dimensioning and bonding L01 MEK01 MEK03
4 TK06 Solid modeling - extrusions and cutouts, on the path, on the profiles, by rotation. Creating patterns, inserting ribs, engraving. Defining the material and parameters of the object. L02, L03 MEK01 MEK03
4 TK07 Assemblies - inserting parts and subsets, binding in assemblies, simulating work. Assembly drawing - projections, wrenches, cross-sections, links, parts list. L04, L05 MEK01 MEK03
4 TK08 Assemblies - inserting parts and subsets, binding in assemblies, simulating work. Assembly drawing - projections, wrenches, cross-sections, links, parts list. L06, L07 MEK01 MEK03
4 TK09 Basics of the computer aided manufacturing system. System operation. Configuration of user interface, CAD / CAM modules. L08 MEK01 MEK02
4 TK10 Fundamentals of turning lathes programinng based on ISO code. L09, L10 MEK01 MEK02
4 TK11 Fundamentals of milling machines programinng based on ISO code. L11, L12 MEK01 MEK02
4 TK12 Development of a technological process framework and programming of the machining process on the basis of construction drawings of objects L13 MEK01 MEK02
4 TK13 Project presentation L14 MEK01 MEK02 MEK03 MEK04 MEK05
4 TK14 Summary. Passing the practical part L15 MEK01 MEK02 MEK03

The student's effort

The type of classes The work before classes The participation in classes The work after classes
Lecture (sem. 4) The preparation for a test: 5.00 hours/sem.
contact hours: 15.00 hours/sem.
Studying the recommended bibliography: 10.00 hours/sem.
Laboratory (sem. 4) The preparation for a Laboratory: 15.00 hours/sem.
The preparation for a test: 5.00 hours/sem.
contact hours: 30.00 hours/sem.
Others: 15.00 hours/sem.
Advice (sem. 4) The preparation for Advice: 5.00 hours/sem.
The participation in Advice: 1.00 hours/sem.
Credit (sem. 4) The preparation for a Credit: 5.00 hours/sem.
The written credit: 2.00 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 A written test from lectures verifies the achievement of the modular educational effect of MEK01. Criteria for the verification of the MEK05 effect: a satisfactory grade is obtained by a student who will receive 50-70% of points on the examination from the knowledge verification part, good grade 71-90%, very good over 90%.
Laboratory The processed machining project is checking the implementation of the MEK02 and MEK03 modules: - for the assessment of 3: is able to define the correct blank, machining base and select tools and parameters, - for evaluation 4: can define the correct blank, machining base and select tools and parameters, can apply appropriate strategies for machining parts, - for assessment 5: can define the correct blank, machining base and choose tools and parameters, can apply the right strategies for machining parts, can generate nc code and discuss its components
The final grade The condition for passing the module is passing all forms of classes. The final grade is determined as a weighted average of the lecture grade with a weight of 0.3 and a laboratory with a weight of 0.7.

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 A. Bazan; G. Budzik; T. Dziubek; P. Jaźwa; Ł. Przeszłowski; P. Turek; D. Wydrzyński Model do zastosowań medycznych i sposób wytwarzania modelu do zastosowań medycznych 2023
2 J. Bernaczek; G. Budzik; T. Dziubek; Ł. Przeszłowski; K. Wójciak Dimensional-Shape Verification of a Selected Part of Machines Manufactured by Additive Techniques 2023
3 J. Bernaczek; M. Dębski; M. Gontarz; R. Grygoruk; J. Józwik; B. Kozik; P. Mikulski Analysis of Torsional Strength of Pa2200 Material Shape Additively with the Selective Laser Sintering Technology 2023
4 J. Bernaczek; P. Cichosz; M. Cieplak; P. Turek Sposób wytwarzania korpusów zaworów 2023
5 J. Bernaczek; P. Fudali; A. Kalandyk; M. Koperski; M. Nagnajewicz Badania stanowiskowe innowacyjnego bębna mieszalnika o pojemności 12 m³ 2023
6 J. Bernaczek; P. Fudali; A. Kalandyk; M. Koperski; M. Nagnajewicz Structural and material analysis of an innovative mixer drum with a capacity of 12 m³ 2023
7 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
8 A. Kubit; D. Wydrzyński Sposób wytwarzania kompozytów warstwowych 2022
9 J. Bernaczek; P. Fudali; A. Kalandyk; M. Koperski; M. Nagnajewicz Analiza konstrukcji elementów składowych innowacyjnego bębna mieszalnika o pojemności 9 m3 2022
10 J. Bernaczek; P. Fudali; A. Kalandyk; M. Koperski; M. Nagnajewicz Badania stanowiskowe i eksploatacyjne innowacyjnego bębna mieszalnika 2022
11 M. Batsch; Ł. Przeszłowski; D. Wydrzyński Tooth Contact Analysis of Cylindrical Gears with an Unconventional Tooth Profile 2022
12 J. Bernaczek Analiza wybranych właściwości wytrzymałościowych materiałów ABS i PC przetwarzanych techniką VC 2021
13 J. Bernaczek Analiza wytrzymałości na skręcanie wybranych materiałów poliuretanowych odlewanych próżniowo w formach silikonowych 2021
14 J. Bernaczek; M. Dębski; G. Jabłońska; M. Magniszewski Analiza wytrzymałości na skręcanie tworzyw termoplastycznych przy zmianie wypełnienia modelu w procesie przyrostowym 2021
15 J. Bernaczek; M. Dębski; M. Gontarz; M. Kiełbicki; M. Magniszewski; Ł. Przeszłowski Influence of torsion on the structure of machine elements made of polymeric materials by 3D printing 2021
16 J. Bernaczek; R. Depa; M. Nagnajewicz; M. Przybek Opracowanie konstrukcji filtra patronowego z przyrostowo wytwarzaną obręczą stabilizującą 2021
17 M. Batsch; W. Witkowski; D. Wydrzyński Algorytm przetwarzania obrazu w celu oceny okrągłości półfabrykatów do wytwarzania miedzianych uszczelnień instalacji hamulcowych, paliwowych i gazowych 2021
18 M. Bucior; A. Kubit; D. Wydrzyński Urządzenie do podgrzewania narzędzia do zgrzewania tarciowego oraz sposób zgrzewania tarciowego 2021
19 A. Kubit; D. Wydrzyński Sposób nanoszenia okładziny ciernej, zwłaszcza na blachę klocka hamulcowego 2020
20 G. Budzik; B. Kamiński; Ł. Przeszłowski; D. Wydrzyński Impact of Tool Imbalance on Surface Quality in Al7075–T6 Alloy Machining 2020
21 G. Budzik; Ł. Kochmański; Ł. Przeszłowski; L. Pyziak; D. Wydrzyński Zastosowanie technologii przyrostowych do wytwarzania przyłbic ochronnych 2020
22 J. Bernaczek; G. Budzik; G. Janas; M. Magdziak; D. Wydrzyński Analysis of Hole Positioning Accuracy with the Use of Position Deviation Modifiers 2020
23 J. Bernaczek; M. Dębski Analiza wybranych właściwości wytrzymałościowych kompozytów termoplastycznych na osnowie polilaktydu 2020
24 R. Burek; A. Kubit; W. Łogin; D. Wydrzyński The influence of the shoulder depth on the properties of the thin sheet joint made by FSW technology 2020
25 A. Burghardt; P. Gierlak; M. Goczał; K. Kurc; R. Sitek; D. Szybicki; D. Wydrzyński Pasywna redukcja drgań wózków kolejki górskiej 2019
26 G. Królczyk; P. Niesłony; S. Świrad; D. Wydrzyński Influence of hydrostatic burnishing strategy on the surface topography of martensitic steel 2019
27 J. Bernaczek; P. Dobrzański; B. Paśko; B. Pawłowicz; Ł. Przeszłowski; M. Pyka; R. Skiba; M. Skręt; W. Szaj; P. Turek; T. Więcek; S. Wolski; P. Wójcik Kuźnia kluczowych kompetencji studentów Wydziału Matematyki i Fizyki Stosowanej Politechniki Rzeszowskiej 2019