Mechanical Engineering Graduate Program

Objectives

The Mechanical Engineering Graduate Program (PPGEM)[1] has the following objectives:

  • Provide excellence in the graduate-level education of individuals from NATIONAL AND INTERNATIONAL communities in three concentration areas of Mechanical Engineering: Solid Mechanics, Thermal Sciences and Engineering, and Manufacturing.
  • Develop, disseminate, and apply the results from basic and technological research in the three concentration areas mentioned above, committed to Brazil’s socio-economic development to generate new technologies, services, and products in the ​​Mechanical Engineering area.
  • Develop human resources (master’s and doctoral) allied to the social insertion committed to Brazil’s interests for effective performance in the academic area and industrial sector with an emphasis on higher education, research, extension, and technological innovation.
  • Contribute to the continuous improvement — professional and ethical — of the PUCPR undergraduate students in the Mechanical Engineering area.
  • Integrate undergraduate and graduate courses, aiming to develop joint work involving master’s and doctoral students with scientific initiation to motivate undergraduate student interest in advanced studies and research, while motivating a cooperative spirit among the Program’s students and encouraging teamwork.
  • Develop continuous scientific and technological cooperation with national and international universities and research institutes to achieve the joint interests of these peers, constantly aligned with the evolution of world research areas.

History

PPGEM started its activities in March 1999 with eight lecturers and ten master’s students (CAPES1 Grade 3). The program started with two concentration areas: Solid Mechanics and Thermal Sciences and Engineering. In 2001, the Manufacturing Concentration area was created.

In 2004, PPGEM received CAPES Grade 4. In 2006, the Doctorate course began in the Program’s three concentration areas. In CAPES’ triennial 2007-2009 assessment, PPGEM received Grade 5 (five), maintaining the same concept in the 2010-2012 triennium. The 2013-2016 four-year evaluation elevated the PPGEM to Grade 6 owing to — among other characteristics of the Program’s performance — considerable international insertion in the form of a) receiving postdoctoral students and foreign sandwich doctorates, b) foreign researchers/professors, c) research projects with foreign institutes of higher education, and d) sending doctoral students for sandwich internships abroad on CAPES PDSE scholarship.

PPGEM’s research areas were extensively reformulated in 2018 and are currently as follows: Science and Technology in Transport Phenomena and Energy and Thermal Engineering in the concentration area of Engineering and Thermal Sciences; Engineering and Surface Integrity, Materials and Manufacturing Processes, and Conventional and Non-Conventional Machining Technology in the Manufacturing concentration area; and Mechanics of Computational Solids Mechanics and Vibrations and Acoustics in the area of Solid Mechanics.

The current faculty is composed of 14 professors (13 permanent and one collaborator from McMaster University – Canada), 77% of whom hold CNPq PQ research productivity grants (1 PQ 1A, 2 PQ 1B, 2 PQ 1D, and 5 PQ2). PPGEM currently has eight technological laboratories in full operation that are dedicated to theoretical and experimental research in their concentration areas. Most laboratory equipment is the result of research grants from Federal Research Funding Agencies (e.g. CAPES, CNPq, FINEP) and the industry sector.

Furthermore, it is possible to note that approximately 95% of master’s and doctoral students currently enrolled in PPGEM do not pay tuition, both owing to the grants from high education/research funding agencies and PUCPR institutional incentive policies or projects with regional and national companies.

1CAPES – Coordenação de Aperfeiçoamento de Pessoal de Nível Superior (Higher Education Improvement Coordination)

Target students

Individuals with a vocation for advanced studies and interest in developing research in one of the three concentration areas and those with a degree in Engineering (Mechanics, Mechatronics, Production, Civil, Chemical, Electrical, Materials, Metallurgy, and others) or Exact Sciences (Physics, Chemistry, and Mathematics).

Candidates for a Doctoral Degree in Mechanical Engineering at PUCPR must have a Master’s in Engineering or Science as a minimum requirement.

PPGEM is composed of three concentration areas: THERMAL SCIENCES and ENGINEERING, MANUFACTURING, and SOLIDS MECHANICS. In 2018, the Program Council executed an extensive reformulation of PPGEM’s research areas because of the 4th industrial revolution at the international level and to meet national demands for innovation in basic and applied research

  • Concentration area: THERMAL SCIENCES and ENGINEERING

Research area: (i) science and technology in transport phenomena, (ii) energy and thermal engineering.

  • Concentration area: MANUFACTURING

Research area: (i) engineering and surface integrity, (ii) materials and manufacturing processes, (iii) conventional and non-conventional machining technology.

  • Concentration area: SOLIDS MECHANICS

Research area: (i) computational solid mechanics, (ii) vibrations and acoustics

1. Research areas

Science and Technology in Transport Phenomena

Concentration Area: Thermal Sciences and Engineering

This area aims to develop and improve experimental, analytical, and numerical methods to solve fluid mechanics as well as heat and mass transfer problems. These problems are present in several knowledge areas, covering topics and applications in areas of engineering, such as mechanics, chemistry, biomedical, environmental, naval, aeronautics, and food.


2. Research areas

Energy and Thermal Engineering

Concentration Area: Thermal Sciences and Engineering

This area’s mission is to generate knowledge in thermal processes, energy efficiency, renewable energy, and cogeneration. Among several objectives, the development of mathematical models, computational codes, experimental techniques, and strategies for improving the energy performance of thermal systems including buildings, air conditioners, refrigerators, motors, compressors, and heat pumps should be highlighted.


3. Research areas

Computational Solids Mechanics

Concentration Area: Solid Mechanics

The Computational Solid Mechanics research area deals with formulation development, methodologies, and algorithms to simulate computationally physical phenomena associated with problems in solid mechanics, structures, and continuous media. It considers static and dynamic phenomena, linear and nonlinear, elastic, and inelastic. It emphasizes problem simulation, using commercial codes, and mathematical and numerical-computational formulation, followed by computational implementation, and the definition of computational strategies for solving problems. The activities are focused on structural and numerical-computational modeling, formulation of elements, analysis of formulation and discretization errors, development of algorithms, and efficient computational implementation.


4. Research areas

Vibrations and Acoustics

Concentration Area: Solid Mechanics

This research area covers topics such as vibrations of machines and equipment, vibrations in structures, modal analysis, vehicle dynamics, predictive maintenance, noise control, room acoustics, and identification of physical parameters of mechanical systems, acoustical properties characterization of absorptive materials, structural damage analysis, and optimization of parametric and topological systems. In addition, the area has been developing research on the use of natural fibers for insulation and acoustic surfaces treatment. Most problems are evaluated experimentally and computationally.


5. Research areas

Conventional and Non-conventional Machining Technology

Concentration Area: Manufacturing

CONVENTIONAL MACHINING: conventional machining process performance applied to the precision mechanics industry in the following topics: 1) ferrous and non-ferrous alloy machinability, 2) new types of cutting tool materials and coatings, 3) the integrity of machined surfaces, 4) cutting fluids and sustainable machining, and 5) polymeric and polymeric-composite material machining. NON-CONVENTIONAL MACHINING: technological and fundamental research on
Sinking EDM and Wire EDM on the following topics: 1) errous and non-ferrous alloy electro-erodibility, 2) materials that conduct electricity, 3) electro-eroded surface integrity, 4) new types of electrode materials, 5) traditional and alternative processes for manufacturing electrodes, 6) micro-EDM technology, and 7) alternative EDM process applications.


6. Research areas

Engineering and Surface Integrity

Concentration Area: Manufacturing

The area of Engineering and Surface Integrity focuses on the evaluation and improvement of material properties that are generally dominated by surface characteristics such as wear, friction, surface energy, corrosion, and bioactivity. Typical research topics include tribological, mechanical and microstructural coating characterization; determination of adhesion of coatings; surface modification by thermochemical treatments, such as boriding, carburizing, and nitriding; electrochemical processes such as plasma Electrolytic Oxidation deposition of Electroless-Nickel and hard coatings by PVD/CVD processes; the surface modification by EDM process; the influence of hard coating deposition process parameters on the mechanical performance of tools and components; and performance of coated surfaces at high temperatures and corrosive environments rich in CO2, H2S, and carbonating media.


7. Research areas

Materials and Manufacturing Processes

Concentration Area: Manufacturing

The research area of Materials and Manufacturing Processes focuses on the generation and application of knowledge related to the composition, structure, and processing of materials with their properties and applications, as well as the manufacturing technologies necessary for their production. Projects focus on the evaluation and optimization of process parameters for ferrous and non-ferrous alloys, glass and ceramics, biomaterials, polymers, and polymer-composites obtained by additive manufacturing as characterization of physical, mechanical, tribological, and resistance properties to corrosion.

PUCPR PPGEM has laboratories whose infrastructure are dedicated exclusively to research work (Master’s/Doctoral), which is prominent for having adherence in concentration/research areas of ongoing projects. Regarding physical space, machines and equipment are readily available, in addition to human resources in the function of technical assistants. The Program also maintains laboratories to support tasks such as concrete specimens test execution, manufacturing individual devices, and measuring equipment, among others. The laboratory infrastructure is presented below. It is essential to highlight that the equipment initially installed in the laboratories (1998) comes from PUCPR’s resources and, in recent years (2012 – present), from FINEP, CAPES, Fundação Araucária and partner companies.

 

Laboratory for Research on Machining Processes — LAUS

Main Equipment:

  • CNC vertical machining center, Cincinnati Milacron, Arrow 500
  • CNC lathe, Cincinnati Milacron, Hawk 150
  • Sinking Electrical Discharge Machine (EDM machine), Charmilles – Roboform 30 CNC (4 programmable axes)
  • Wire EDM machine, Charmillles – Robofil 290 CNC (5 programmable axes)
  • EOS P396 Machine (Selective Laser Sintering)
  • Kistler data acquisition systems for measuring machining efforts (turning, milling and grinding) models 9272, 9257B, and 9265B
  • Tool-workpiece thermocouple system for temperature measurement (homemade)
  • Bench roughness meter (Taylor Hobson, model SURTRONIC 3+)
  • Flat grinder, manufacturer Jones & Shipman PLC, model 1400X
  • Cylindrical grinding machine, manufacturer Jones & Shipman PLC, model 1300X
  • INTOS FNGJ-32 milling machine with Heindenhein ND550 digital readout
  • Radial drill, model MAS VO-32, manufacturer Kovosvit Ltd
  • Conventional lathe, manufacturer Romi, model Tormax 30A
  • Universal tool sharpener, mod. BN-102C, Erwin Junker

 

Center of Materials´ Characterization and Tests — CMCT

Main Equipment:

  • Universal Testing Machine (MTS) up to 10 tons (tensile, flexing, and compression tests)
  • Rockwell, Brinell, and Shore durometers (hardness tests of metals and polymers)
  • Instrumented Charpy Impact Test (impact tests and ductile-brittle transition of metals)
  • Ultrasound equipment
  • A programmable high voltage power supply (Chroma) (superficial modification of metals)
  • Hothouse, scales, water baths, and heat treat ovens
  • Polishing machines and mount machines (metallographic preparation)
  • Optical microscopes (Olympus BX-61, with image acquisition camera and AnalySys software)
  • Microdurometer (Shimadzu HMV) up to 2 kgf (indentation hardness and fracture toughness measurements – Vickers and Knoop indenters)
  • Ultramicrodurometer (Shimadzu DUH-W211) with loads from 0.1 to 200 mN (hardness and elastic modulus measurements — Berkovich and Vickers indenters)
  • Universal tribometers (CSM) – with and without heating up to 800 ° C (friction coefficient measurements and wear rate)
  • Scratch test (Revetest Anton-Paar) – with loads from 1 to 200 N (coating adhesion measures with optical and acoustic sensor)
  • Goniometer (EasyDrop, Kruss) – contact angle and surface energy measurement using the sessile drop method
  • Potentiostat (Ivium) – corrosion tests (OCP measurements, potentiodynamic curves, electrochemical impedance, tribocorrosion)
  • Salt Spray chamber – accelerated corrosion tests in a saline environment
  • Scanning Electron Microscope (Vega3, Tescan), with EDS (Energy Dispersion Spectroscopy, Oxford) – high-resolution images and elemental chemical composition determination
  • Gold and carbon coater
  • X-ray diffractometer (XRD-7000, Shimadzu) – determination of crystalline material phases with Bragg-Brentano, Glancing-Angle, and Residual stress geometries
  • Glow discharge nitriding reactor

 

Metrology Laboratory – ML

Main Equipment:

  • Coordinate Measuring Machines (DEA Brown & Sharpe)
  • Bench rugosimeter (Taylor Hobson)
  • Linear Measuring Machine (SIP 550)
  • Profile projectors
  • Interferometric laser
  • Portable Measuring Instruments

 

Thermal Systems Laboratory – LST

Main Equipment: 

  • Air-conditioned chambers for systems and equipment energy assessment with an operating range of -10ºC to 60ºC and humidity from 10% to 95%. These chambers operate as a balanced calibrated calorimeter to simulate indoor and outdoor ambient conditions.
  • Climatized chambers for systems and equipment energy assessment with an operating range of -10ºC to 60ºC and humidity from 10% to 95%
  • Data acquisition systems
  • FTIR spectrometer FTIR spectrometer for thermal radiative property identification
  • FLIR SC620 infrared camera
  • DSC Differential Calorimeter Netsch Pegasus 404
  • Heat exchanger test benches
  • Simulating air properties test bench (for air conditioning and refrigeration)
  • Flow, temperature, and pressure measurements test bench
  • Unit for determining the thermal conductivity of fluids, unit for boiling heat exchange measurements, and unit for determining the mechanical equivalent of heat

 

Fluid Mechanics Laboratory — FML

Didactic laboratory for understanding the basic principles of Fluid Mechanics.

Main Equipment:

  • Wind tunnel for drag measurement, boundary layer profile on a flat plate, and flow in convergent/divergent nozzle.
  • Gravimetric bench for jet impact experiments, flow measurement, and rotational flow.
  • Bernoulli equation application bench, centrifugal pump performance, strength assessment on submerged surfaces, and metacentric height measurement.

 

Applied Thermodynamics Laboratory — ATL

Main Equipment:

  • Zöllner alpha dynamometer 160 kW
  • 160 HP MWM Sprint 6.07T diesel engine instrumented with pressure and temperature sensors
  • Piezoelectric transducer + Angular encoder for measuring combustion chamber pressure
  • Air Flow sensor
  • Fuel consumption measurement scale
  • Analyze gases from combustion products.
  • PXI with analog/digital input modules and thermocouple temperature measurements

 

Dynamics Laboratory — DL

Main Equipment:

  • Signal Analyzer 10-channel PULSE Bruel&Kjaer
  • Signal Analyzer 16-channel HP
  • Multi Signal Analyzer HBM
  • Modular Precision Sound Analyzer Bruel&Kjaer
  • Signal processing modules
  • Microphone and accelerometer calibrators
  • Structural accelerometers of general-purpose and ultra-low level
  • Dynamic driver
  • Impedance Tubes
  • Flow Resistivity Workbench
  • Noise Dosimeter Bruel&Kjaer
  • Microphones of ½ and ¼ in
  • Impulse Hummers
  • Sound Power Sources
  • Power Amplifiers
  • Displacement, pressure, and force transducers.
  • Torsional and linear vibration measurement system
  • Acoustic chamber with low background noise
  • Workbench for silencers evaluation
  • Vibration test system
  • HTM16 universal vibration apparatus
  • P1150 static and dynamic balancing machine

 

Automotive Laboratory — AL

Main Equipment:

  • Injection and electronic ignition benches
  • Conventional and ABS brake system
  • Automotive sensors
  • Systems simulation software
  • Suspension and steering system
  • Workbenches for electrical and electronic components
  • Engine operation test bench
  • Automatic climate control bench
  • Auxiliary systems: airbag, electric seat, windshield, and start

 

Machine and Mechanism Parts Laboratory — MMPL

Main Equipment:

  • Workbenches for mechanisms evaluation
  • Torsion test equipment
  • Cam test equipment,
  • Vibration analysis equipment on axes
  • Equipment for rotating and flexing fatigue testing
  • Software for multi-physics simulation
  • Software for acoustic simulation

 

Computer Simulations Laboratory — CSL

Main Equipment:

  • High-capacity data processing computers
  • MATLAB software (Matworks), CFX Ansys 11

 

Factory Practice Laboratory — FPL

Main Equipment:

  • Universal lathe
  • Universal milling machine
  • Sensitive drill with coordinate table
  • Horizontal band saw
  • Vertical band saw

 

Welding Laboratories

Main Equipment:

  • CNC PLASMA cutting set
  • Oxyfuel set
  • MIG / MAG welding
  • TIG welding
  • Spot welding (resistance)

PPGEM INTERNATIONALIZATION ACTIONS

The Internationalization Project is an integral part of the measures currently underway at PUCPR and one of the ongoing PPGEM goals in search of excellence. PPGEM seeks to form a student body composed of foreigners by 2022 and robust projects in international cooperation. In this sense, some examples stand out:

 

2019-2022 — Research Project: CP 24/2018 Assistance Program to the Internationalization of Academic Graduate Programs of scores of 6 and 7 

Universities involved: University of California at Berkeley (USA), INSA Lyon (France), Conservatoire des Arts et Metiers de Paris (France), Colorado State University (USA), McMaster University (Canada), University of Huddersfield (UK). Situation: In progress; Nature: Research. Students involved: Academic Master’s: (3) Doctorate: (4) Members: Fred Lacerda Amorim – Coordinator /Ricardo Diego Torres – Member/Luis Mauro Moura – Member/ Nathan Mendes – Member/Paulo César Philippi – Member /Paulo César Soares Jr. – Member/João Elias Abdalla Filho – Member. Financier (s): Araucária Foundation to Support Scientific and Technological Development – Financial assistance.

 

ABCM COBEM 2017 International Congress of Mechanical Engineering: Due to the maturation and development of consolidated research works in partnership with national/international Institutes of Higher Education and the industrial environment, as well as a strong commitment to developing well-qualified human resources (master’s and doctors), PPGEM, whose organizational work began in 2015, organized and hosted ABCM COBEM2017 — International Congress of Mechanical Engineering — on December 3 to 8, 2017. COBEM2017 brought together undergraduate and graduate students, engineers, professors, and researchers from the most varied research areas in Mechanical Engineering at prestigious Universities and National and International Research Centers. They contributed through lectures, oral presentations, and poster sessions on the most recent advances in Mechanical Engineering and related fields. Congress had approximately 1,600 Brazilian and foreign conference participants (according to ABCM, the largest COBEM to date) and 12 foreign speakers (USA, Switzerland, Japan, France, and Nigeria). It is essential to highlight those renowned companies of prominence in the Brazilian and international industrial scenario, such as Zeiss (Germany), Vtech Consulting Ltda, EOS (Germany), Iscar (Israel), Sandvik Coromant (Sweden), Brüel & Kjaer (Denmark), Tescan (Czech Republic) and Embraer, sponsored COBEM2017. Moreover, these companies presented their products and workshops at stands during the Congress. It can be argued that the realization of COBEM2017 is characterized by a factor in increasing the international insertion of PPGEM, as research projects among PPGEM professors with foreign researchers were arranged.

 

2018 – 2021 — CAPES-COFECUB Project (Approved in 2017): Binational cooperation for the establishment and consolidation of research focused on the development of mathematical models, numerical methods, and improvement of simulation tools.

Countries: Brazil and France

Coordinator in Brazil: Nathan Mendes

Coordinator abroad: Monika Woloszin

Funding bodies: CAPES (Brazil) and COFECUB (France)

  

2017 – 2021Investigation on the Behavior of Different Track Systems for Railway Applications

Coordinators: Joao Elias Abdalla Filho (PPGEM / PUCPR); Joao Pombo (Heriot-Watt University, Edinburgh, Scotland)

Graduate students: Denise Tholken (Ph.D.)

Financing agencies: CAPES (scholarships); Center of Excellence for

High-Speed ​​Rail at Heriot-Watt University

The project — developed between PUCPR PPGEM and the Center of Excellence for High-Speed ​​Rail at Heriot-Watt University, Scotland — has the primary objective of investigating the mechanical behavior of different railroad systems when passing through railway vehicles. A railroad system involves rails, ballast, sleepers, and the underlying soil, or — in place of the latter —a bridge or viaduct structure. The main variant in each system is the type of ballast, which, in turn, implies a sleeper. According to the ballast type, three systems are studied: (i) concrete slab ballast, (ii) gravel ballast, and (iii) asphalt ballast. In the first stage of the project, the three systems will be investigated, considering the soil as an underlying structure. Subsequently, the same three systems will be investigated considering a bridge or viaduct structure. At the end of the project, all are expected to have (i) a better understanding of each of these track systems’ mechanical behavior, (ii) greater mastery over associated experimental techniques, and (iii) greater mastery over associated numerical modeling. Participants are also expected to develop master’s and doctors to act in scientific research in both academia and industry.

 

2017 – CURRENT: — Improving the stability of Lattice-Boltzmann schemes for high Reynolds number turbulent flows

Country(s): Brazil (PPGEM of PUCPR and UDESC), USA, Italy, Finland

Coordinators in Brazil: Paulo C Philippi (PPGEM of PUCPR) and Luiz Adolfo Hegele Jr. (UDESC)

Coordinator (s) abroad: Keijo K. Mattila (University of Jyvaskyla, Finland), Amanda Randles (Duke University, USA), Mauro Sbragaglia and Andrea Scagliarini (University of “Tor Vergata,” Italy)

Funding body (s): CNPq, Lab of Biomedical Engineering of Duke University

 

2015 – 2019 — EA-EBC Annex 68: Indoor Air Quality Design and Control in Low-Energy Residential Buildings standards

Country(s): Brazil, Denmark, Germany, France, China, and Belgium, among others

Coordinator in Brazil: Nathan Mendes

Coordinator(s) abroad: Carsten Rode (USA) and John Grunnewald (Germany).

Graduate student involved: William Rabelo (Doctorate)

Funding agency (s): CAPES and PUCPR, sponsored by the International Energy Agency (www.iea-annex68.org)

 

2013 – 2017 — IEA ECBCS Annex 60: New generation computational tools for building and community energy systems based on the Modelica and Functional Mockup Interface standards

Country(s): Brazil, USA, Germany, France, and Belgium, among others.

Coordinator in Brazil: Nathan Mendes

Coordinator(s) abroad: Michael Wetter (USA) and Christoph Van Treck (Germany)

Graduate student involved: Walter Mazuroski

Co-tutelage (Number of doctoral students in co-tutelage or sandwich Ph.D.): 0

Funding body (s): CNPq and CAPES, sponsored by the International Energy Agency (www.iea-annex60.org)

 

2013 – 2017 — Surface modification of titanium and titanium alloys on a nanoscale for application in orthopedic implants

Country(s): Brazil/USA

Coordinator in Brazil: Paulo Soares (PPGEM/PUCPR)

Coordinator abroad: Ketul C Popat (University of Colorado)

Graduate students involved: 2 doctoral students

Co-tutelage (Number of doctoral students in co-tutelage or sandwich Ph.D.): 2 (Luciane Santos PPGEM and Marcela Ferreira PPGCS)

Financing body (s): CNPq

 

2016 – 2018 — Natural computer metaheuristics applied to the biomechanics of competitive swimming starts and turns

Country(s): Brazil and Portugal (University of Porto)

Coordinator in Brazil: Leandro dos Santos Coelho – PPGEM participant: Viviana Mariani

Coordinator abroad: João Paulo Vilas Boas

Funding body(s): CAPES

 

2010 – PRESENT: PEEC-Based Multi-Objective Synthesis of Non-Uniformly Spaced Linear Antenna Arrays

Country(s): Brazil and Italy (University of Padova)

Coordinator in Brazil: Leandro dos Santos Coelho/Viviana Cocco Mariani

Coordinator abroad: Piergiorgio Alotto

 

2013 to 2017 CAPES-COFECUB Project: Impact of Combined Heat and Mass Transfer on Energy Performance and Building Durability, in conjunction with LOCIE-UdS, Université de Savoie and CHETIL, INSA de Lyon, France. It should be noted that the project was strengthened by the intense participation of graduates and postdoctoral students not foreseen at the beginning of the agreement, which made it possible to enhance the comprehensiveness of the scope of this Franco-Brazilian interaction and more unearth more profound research. Besides, International Doctoral Schools were organized within the project scope, which allowed not only a proper project development but also new international prospecting with more significant scope innovation. Relating to the project, two Master’s degrees were concluded by 2016, in addition to seven in-progress Doctoral advisings, three of which with grants abroad financed by this project (two in co-advising). Regarding bibliographic production, an international book and 17 articles were published in international journals with JCR, and participation in congresses is highlighted.

 

BRAFITEC: Since 2003, together with UFPR and UTFPR, PPGEM has a Brafitec/CAPES project approved with French universities: Compiègne University of Technology — UTC – Project Coordinator, Belfort Montbéliard University of Technology — UTBM and University of Troyes technology — UTT. These grants correspond to a six-month stay at a partner university and another six months of internship at a company indicated by this university. This is because of the selection criteria adopted that favors the best student candidate, demonstrating happily, granted that they remain interested in improving their scientific knowledge with the Masters. This international experience will undoubtedly contribute to the Master’s work of these students.

 

INTERNATIONAL DOCTORAL SCHOOLS (International Ph.D. School). This is an innovative proposal for the internationalization of the Graduate Program in Mechanical Engineering (PPGEM) at PUCPR in search of excellence. PUCPR’s PPGEM doctoral schools have been held annually since 2013. The school has the following specific objectives: 1) to develop international research projects in strategic areas, 2) promote the internationalization of research and graduate studies in an associative manner, 3) disseminate international knowledge of PPGEM concentration areas, 4) strengthen the Graduate Program to develop better professionals at the Master’s and Doctorate levels, 5) prepare graduate students for the globalized world, 6) establish and consolidate international cooperation with multinational companies located in or outside Brazil, and 7) produce high-impact publications on international cooperation. It is important to note that registration is free, and subjects taught in English by foreign and Brazilian lecturers are validated with six credits in the Brazilian system and five ECTS in the European system. The school has an average participation of 20 Ph.D. students (Brazilians and foreigners from Europe, Asia, and Latin America) annually, as well as an average of six foreign lecturers (Europe and Asia) and four Brazilians (PUCPR and other Institutes of Higher Education). The Doctoral School has subjects taught during a normal period of 15 days (8 hours/day) and is promoted by PUCPR, CNPq, Araucária Foundation (Paraná State Foundation for Research), as well as some companies.

In 2013, PPGEM organized and hosted the I INTERNATIONAL DOCTORAL SCHOOL (INTERNATIONAL PhD SCHOOL) supported by the International Association of Building Physics — in an initiative to internationalize research in the areas of hygrothermal and energy modeling of buildings, including risk assessment of energy performance. The subjects taught were validated with six credits in the Brazilian system and five ECTS in the European system. Participation was free for Brazilian and international students. The following universities and professors participated: Achilles Karagiozis (Oak Ridge National Laboratory, USA); Andreas Holm (Forschungsinstitut für Wärmeschutz e.V. München, Germany); Angela Sassic-Kalagasidis (Chalmers University of Technology, Sweden); Carl-Eric Hagentoft (Chalmers University of Technology, Sweden); Carsten Rode (- DTU, Denmark and President of the International Association of Building Physics); John Grunewald (- TUD, Germany); Luís Mauro Moura (Pontifical Catholic University of Paraná – PUCPR, Brazil); Marcus Bianchi (Owens Corning, USA); Nathan Mendes (Pontifical Catholic University of Paraná – PUCPR, Brazil); Thomas Bednar (Vienna University of Technology – TUV, Austria); Vasco Freitas (University of Porto, Portugal).

In 2013, simultaneously with the International Doctoral School, PPGEM also organized and hosted the VII INTERNATIONAL ENERGY AGENCY (IEA), Annex 55 MEETING with the massive participation of international researchers, as well as Brazilian and international students.

In 2014, PPGEM organized and hosted the II INTERNATIONAL DOCTORAL SCHOOL (INTERNATIONAL Ph.D. School), entitled ENERGY AND MOISTURE IN BUILDINGS: FROM THE MICROSTRUCTURE OF POROUS MATERIALS TO THE BUILDING ENERGY EFFICIENCY. The following researchers were responsible for teaching the School subjects in English: Abdelkrim Trabelsi (INSA de Lyon, France), Anne-Cecile Grillet (Université de Savoie, France), Carsten Rode (Technical University of Denmark), Celso Peres Fernandes ( Federal University of Santa Catarina — UFSC, Brazil), Joseph Virgone (INSA de Lyon, France), Luís Mauro Moura (PPGEM — PUCPR, Brazil), Marx Chhay (Université de Savoie, France), Nathan Mendes (PPGEM of PUCPR, Brazil ), Paulo César Philippi (Federal University of Santa Catarina — UFSC, Brazil), Simon Rouchier (Université de Savoie, France).

In 2015, the III INTERNATIONAL DOCTORAL SCHOOL was held under the CAPES-COFECUB project, but only with French members already in Brazil due to financial difficulties encountered in the period. This 3rd edition was entitled “Non-Deterministic Approaches for Assessment of Building Energy and Hygrothermal Performance” and participated in the following speakers: Jeanne Goffart, Julien Berger, Mickael Rabouille, Marx Chhay, and Nathan Mendes. This edition was carried out without any financial support.

In 2016, visiting professor at PPGEM, Marx Chhay co-organized the IV INTERNATIONAL DOCTORAL SCHOOL with the Brazilian coordinator, Professor Nathan Mendes, on the CAPES-COFECUB project theme entitled “Numerical Methods for Diffusion Problems Applied to Building Energy Modeling.” This school had two other French researchers (Denys Dutykh, Julien Berger) and another Brazilian (Professor Hélcio Orlande — UFRJ). Ph.D. students from Canada, Belgium, and the Czech Republic also participated, in addition to Brazilian Ph.D. students. Because of this school, the following book was written: Mendes, N.; Chhay M.N.; Berger, J.; Dutykh, D. Numerical methods for diffusion phenomena in building physics: a practical introduction. 1. ed. Curitiba: PUCPress, 2016. v. 1. 220p.

 

2010–2014 — IEA ANNEX 55: Reliability of Energy Efficient Building Retrofitting – Probability Assessment of Performance and Cost (RAP-RETRO)

Description: The annex (IEA ANNEX 55) scope is to develop and provide decision support data and tools for energy retrofitting measures. The tools will be based on probabilistic methodologies for predicting energy use, life cycle cost, and functional performance. The impact of uncertainty on the performance and costs will be considered in this project. Methods based on probability provide potent tools that can provide us with reliable ranges for the outcome. The outcome of the annex is to develop knowledge and tools that support the use of probability-based design strategies in retrofitting buildings to ensure that the anticipated energy benefits can be realized. These will offer reliable information about the real outcome of retrofitting measures regarding energy consumption, cost, and functional performances. Therefore, the main objective will be realized by merging hygrothermal building physics with probability and economic analysis. The developed methods will then be applied to optimize energy retrofitting methods. The main objectives of the annex are to a) develop a common framework for probabilistic assessment of energy retrofitting measures, b) develop and validate probabilistic tools for energy use, life cycle cost and hygrothermal performances, c) collect and analyze data to create stochastic data sets, and d) apply and demonstrate probabilistic methodology on (at least) five real-life case studies focusing on residential buildings. Candidates for the case studies are found among ongoing retrofitting projects: interior and exterior wall insulation system, cavity wall insulation, window upgrading, HVAC-system changes, change of heating system, and operation of buildings, installing solar panels on roofs, insulation of cold attics, and crawl-space foundation.

 

2009–2014 — BRAGECRIM Program: Brazilian German Collaborative Research Initiative on Manufacturing Technology

Project: EDM Electrode Production by Layer Manufacturing Technique (LMT) Resources: CAPES, FINEP, CNPq (Brazil); DFG (Germany). Universities: PUCPR and Technische Universität Clausthal (Germany) Description: This project proposes to develop and improve concurrent Technologies to produce precision EDM electrodes by Layer Manufacturing Technique (LMT) to Electro-Discharge Machining advanced 3D products. The project will be executed over four years (2009-2014). The electrodes will be manufactured with different materials using LM Technique based on Selective Laser Sintering using the facilities of the Institutes IMW – Fritz- Süchting-Institut für Maschinenwesen and ZFW – Zentrum für Funktionswerkstoffe of TUClausthal – Technische Universität Clausthal. The assessment and improvement of EDMachining performance measures will be in charge of the LAUS-Laboratório de Pesquisa em Usinagem of PUCPR. This project considers the sustainable development of the German-Brazilian production chain through innovative technology. The project will be an opportunity to manufacture EDM electrodes and establish a communication channel for technology and human resources transfer between TUClausthal and PUCPR linked to the Brazilian/German industries.

 

2009–2013 — Coating production and characterization for applications at high temperatures and oxidizing and carbonizing media. Institutions involved: PUCPR, USP, UFPR, and the Technical Institute of Monterrey (MEXICO). Funding agencies: MCT/CNPq. Description: In 2009 — within the PPGEM internationalization scope — the joint approval with USP and UFPR occurred within the scope of the Inter-American Collaboration of Materials Program CIAM/CNPq, a collaboration project with the Instituto Técnico de Monterrey from Mexico City. Through this project, under the coordination of Professor Roberto Martins de Souza from USP, it was possible to visit the Institute of two Brazilian professors — Roberto Martins de Souza (USP) and Ricardo D. Torres (PUCPR). During this visit to Mexico City, technical aspects of the project were discussed, as well as the project schedule.

 

2014–2016 — PPGEM Internationalization Project Expansion at PUCPR. Objective: develop international research projects in strategic areas for Brazil, focusing on technological and scientific innovation through research and the Graduate Program of PPGEM at PUCPR in an associative way. Strengthen Graduate Studies to develop better professionals at the Master’s and Doctorate levels. Establish long-term international institutional cooperation with foreign Institutes of Higher Education. Partnerships with McMaster University (Canada) and Colorado State University (USA); the objective of this project proposal will allow the active exchange of Master’s and Doctorate professors and students in the area of Manufacturing, more specifically on the theme of Surface Engineering.


INTERNATIONAL ACTIVITIES DEVELOPED BY PPGEM LECTURERS:

– ABCM Vice-Presidency

– Coordinator PUCPR project CAPES/BRAFITEC UT’s/PUCPR, UTFPR, UFPR

– General coordinator of CAPES/BRAFITEC INSA’s/PUCPR, UTFPR, UFPR project

– Sub-coordinator of the SOUTH AMERICAN NETWORK of Thermophysical Properties PROSUL/CNPq

– Participation in the project ARCUS — School of Thermophysical Properties (Brazil/France)

– Organization of the 1st ICMES — International Congress of Mathematics, Engineering, and Society

– Publication of a book chapter by Editor Taylor Francis / Reviewer of Inverse Problems in Science, and Engineering

– Member of the SECOND ANNOUNCEMENT AND CALL FOR PAPERS INVERSE PROBLEMS, DESIGN AND OPTIMIZATION SYMPOSIUM scientific committee – IPDO 2010

– Brazilian representative at IBPSA World (International Building Performance Simulation Association)

– Member of the Journal of Building Physics editorial committee

– Member of the Journal of Building Performance Simulation editorial committee

– Member of the Journal of the Brazilian Society of Mechanical Sciences and Engineering editorial committee

– Guest Editor of the Journal of Statistical Mechanics. Theory and Experiment

– Member of the Scientific Committee of the Discrete Simulation of Fluid Dynamics annual series of conferences

– HdR committee member (Habiitation a Diriger DES Recherches) at Claude Bernard University (Lyon, France)

– Guilian Leroux committee member at the University of Savoie Mont-Blanc, France (2016)

– Rapporteur (Rapporteur) on the thesis of Lucile Soudani from the University of Lyon, France (2016)

– Participation in semiannual work meetings of Annexes 41, 55 and 60 of the IEA (International Energy Agency; 2005, 2006, 2007, 2008, 2010, 2011, 2012, 2013, 2014, 2015 and 2016)

– Member of multinational projects in Annexes 41, 55, and 60 of the IEA (International Energy Agency)


VISITING FOREIGN LECTURERS AT PPGEM:

– Name: Olímpia Salas. Institution: ITSEM Instituto Técnico Superior de Monterrey, Mexico. Period: July 2013 to July 2014 (12 months). Salas gave lectures, co-supervised Master’s research, participated on Master’s degree committees, and prepared articles together with PPGEM professors in the area of ​​Materials and Manufacturing Processes;

– Name: Carsten Rode. Institution: Technical University of Denmark. Period: April 2013. Rode developed teaching and writing activities in the ​Thermal Sciences and Engineering area;

– Name: François Dubois. Institution: Conservatoire National des Arts et Metiers de Paris. Period: Jun 2018. Dubois developed lecturing and joint research in the ​Lattice Boltzmann Method;

– Name: Marx Chhay. Institution: Université de Savoie – France. Period: March 2015 to June 2016. Project title: Fast Computational Methods for Some Building-Related Problems. Brief description: characterization of materials based on the adjunct model for experimental data assimilation. Rapid numerical methods for 3D transfer simulation based on an analytical boundary condition of integral solution formulation;

– Name: Ketul C. Popat, Associate Professor. Institution: Colorado State University, Department of Mechanical Engineering — School of Biomedical Engineering, Fort Collins CO, USA. Title: Surface modification of titanium and titanium alloys on a nanoscale for application in orthopedic implants. Notice: Science Without Borders Program – Country Scholarships, Special Visitor Researcher Grant – PVE, Call for Projects MEC/MCTI/CAPES/CNPQ/FAPS Call No. 71/2013. Period: the beginning of March 3. 2014 (36 months)


SANDWICH DOCTORATE INTERNSHIP ABROAD:

Through CAPES PDSE Program, PPGEM has been sending Ph.D. students for 12 months to renowned International Higher Education Institutions, namely:

– Gabriel de Sant’Anna Vitor Barbieri – ROMA – 6-month period (Nov. 2019 – Apr. 2020) Sapienza Università di Roma

– Nelson Luis Maurios Legat Filho – USA – 6-month period (Oct. 2018 – Mar. 2019) Ohio State University

– Lucas de Sant’ana Vitor Barbieri – PORTUGAL – 6-month period (Nov. 2018 – May. 2019) University of Porto

– Luciane Sopchenski Santos – USA – 6-month period (Jul. 2017 – Dec. 2017) Colorado State University

– Marcos Batistella Lopes – FRANCE – 12-month period (Apr. 2017 – Mar. 2018) Université de La Rochelle

– Claudia Morishita – FRANCE – 12-month period (Nov. 2016 – Oct. 2017) Université de Savoie-Mont-Blanc

– Denise Tholken – UNITED KINGDOM – 5-month period (Jul. 2017 – Dec. 2017) Heriot-Watt University (HWU)

– Anastácio da Silva Júnior – FRANCE – 5-month period (Aug. 2017 – Jan. 2018) l ‘école d’ingénieurs – la rochelle, lagord

– Suelen Gasparing – FRANCE – 18-month period (Oct. 2016 – Apr. 2018) University of Savoye

– Lorena Freitas Dutra – FRANCE – 18-month period (Jan. 2015 – July. 2016) University of Savoye

– Marcos Eduardo Soares – PORTUGAL – 12-month period (Apr. 2014 – Mar. 2015) University of Porto

– José Mário F. de Paiva Júnior – CANADA – 12-month period (Mar. 2013 – Feb. 2014) Mc Master University – Stephan Hennings Och – FRANCE 12-month period (July 2012 – June 2013) INSA Rouen


 PPGEM LECTURERS POST-DOCTORATE ABROAD:

– Paulo C. Soares Jr. – USA – 12-month period (Dec. 2019 – Jan. 2021) Colorado State University, and 12-month period (Dec. 2012 – Nov. 2013) Colorado State University

– Viviana Cocco Mariani – Italy – 12-month period (Jan. 2018 – Dec. 2018) –
Università degli Studi di Padova, UNIPD, Itália

– João Elias Abdalla Filho – USA – 12-month period (Aug. 2015 – Jul. 2016) University of Colorado Boulder

– Luis Mauro Moura – France – 12-month period (Dec. 2011 – Jan. 2012)
Institut National des Sciences Appliquées de Lyon, INSA LYON


FOREIGN PhDs AND POST-DOCTORATES IN PPGEM:

– Name: Guilian Leroux. French institution: Université de Savoie. Current situation: Ph.D. student. Period: November 2014 to March 2015. French institution scholarship holder. Project title: Study and Development of an Evaporative Cooling System for Buildings. Brief description: the development of an innovative evaporative cooling system. A comparative energy assessment will then be conducted to compare the new system with the existing ones.

– Name: Jeanne Goffart. Former French institution (Doctorate): Université de la Reunion. Doctorate held at the Université de Savoie. Current situation: postdoctoral student. Period: November 2014 to October 2015 with possible extension. CAPES Postdoctoral Fellow. Project title: Nouvelle Approche Pour l’estimation du Risque d’humidité en Bâtiment Performance. Brief description: utilization of sensitivity analysis techniques to assess the impact of the climate on roof insulation.

– Name: Mickael Rabouille. Previous French institution (Doctorate): Université de Savoie. Current situation: postdoctoral student. Period: November 2014 to October 2015, with possible extension. CAPES Postdoctoral Fellow. Project title: Outil d’aide à la Décision Pour l’analyse Multi-critère en Réhabilitation: Usage des Meté-modèles. Brief description: use of sensitivity analysis techniques to assess the impact of different input parameters on roof insulation.

– Name: Julien Berger. Previous French institution (Doctorate): Université de Savoie. Current situation: postdoctoral student. Period: February 2015 to April 2016. CAPES Postdoctoral Fellow. Project title: Model Reduction Techniques for Solving Physical Problems in Buildings. Brief description: The project aims to use and improve the model reduction technique for quick solution of coupled problems of heat and humidity transfer in buildings and for estimating hygrothermal properties necessary in building energy simulation codes.

– Name: Laura Michel. Previous French institution (Doctorate): Université de Savoie. Current situation: postdoctoral student. Period: March 2014 to March 2015. Scholarship: No. Project title: Statistical Analysis of Models for the Energy Performance of Buildings. Brief description: The project contributes to the methods of assessing energy performance in buildings through a statistical approach. A simplified model is proposed, allowing the effects of humidity to be considered in the rules for calculating the energy efficiency of buildings in Brazil.

– Name: Santiago Riquelme. Chilean institution: Universidad del Bio-Bio. Current situation: Master’s student (direct pass to Doctorate). Period: April 2013 to March 2015 (Master’s) and April 2015 to December 2018 (Doctorate). CAPES Master Scholarship. Project title: Development of Instrumentation and Mathematical Models for Predicting Heat Exchanges by Radiation with Sky and Neighborhood. Brief description: The Master’s project aims to develop a low-cost apparatus to estimate the sky temperature. The Ph.D. project aims to develop models for heat exchanges by long-wave and short-wave radiation with the sky and neighboring surfaces, improving the energy simulation of buildings’ external boundary conditions.


INTERNATIONAL FORMAL AGREEMENT

PPGEM has carried out joint activities with researchers from international institutions in research projects related to its three areas of concentration, in the direct researcher-researcher relationship, and through formal University-University cooperation agreements for the exchange of undergraduate and graduate students. Post-Graduation in the form of sandwich Master’s/Doctorate, Post-Doctorate, and assignments for professors and students. Some institutions with which research activities are carried out:

TECHNISCHE UNIVERSITAET CLAUSTHAL (Germany)

TECHNISCHE UNIVERSITAET DRESDEN (Germany)

TECHNICAL UNIVERSITY OF DENMARK (Denmark)

VIENNA UNIVERSITY OF TECHNOLOGY (Austria).

UNIVERSITE DE SAVOIE (France)

INSTITUT NATIONAL DES SCIENCES APPLIQUÉES -INSA (France)

McMASTER UNIVERSITY (CANADA)

COLORADO SCHOOL OF MINES (USA)

COLORADO STATE UNIVERSITY (USA)

UNIVERSITY OF COLORADO BOULDER (USA)

UNIVERSITY OF CALIFORNIA AT BERKELEY (USA)

SUPERIOR TECHNICAL INSTITUTE OF MONTERREY (MEXICO)

SOUTHWEST RESEARCH INSTITUTE (USA)

SYRACUSE UNIVERSITY (USA)

SOUTHWEST RESEARCH INSTITUTE (USA)

CONSERVATOIRE NATIONAL DES ARTS ET METIERS DE PARIS

Research projects are funded by CNPq, CAPES, and FINEP, as well as international agencies (DFG – Deutsche Forschungsgemeinschaft, Germany and IEA – International Energy Agency, EUA).


PPGEM Books (ENGLISH):

– Mendes, N.; Chhay M.N.; Berger, J.; Dutykh, D. Numerical methods for diffusion phenomena in building physics: a practical introduction. 1. ed. Curitiba: PUCPress, 2016. v. 1. 220p.


MASTER’S DEGREES in ENGLISH LANGUAGE (written and presented, with foreign evaluator)

2015: Santiago Riquelme. Development of an Apparatus for Assessment of Outgoing Infrared Radiation Using a Heat Balance Method. 2015. (Master’s Degree in Mechanical Engineering) – Pontifícia Universidade Católica do Paraná, Coordination for the Improvement of Higher Education Personnel. Advisor: Nathan Mendes.

2015: Suelen Gasparin. A Hybrid Method for Computing Heat Transfer through Multilayered Building Envelopes. 2015. (Master’s Degree in Mechanical Engineering) – Pontifícia Universidade Católica do Paraná, Coordination for the Improvement of Higher Education Personnel. Advisor: Nathan Mendes.

2013: Ricardo Baasch Pacheco. Experimental Evaluation and Empirical Performance Correlations of a Dual-Split Air Conditioning System. 2013. (Master’s Degree in Mechanical Engineering) – Pontifícia Universidade Católica do Paraná, Coordination for the Improvement of Higher Education Personnel. Advisor: Nathan Mendes.

2013: Tiago Czelusniak. Development and Application of Copper-Nickel Zirconium Diboride as EDM Electrodes Manufactured by Selective Laser Sintering. 2013. (Master’s Degree in Mechanical Engineering) – Pontifícia Universidade Católica do Paraná, Coordination for the Improvement of Higher Education Personnel. Advisor: Fred Lacerda Amorim.

2011: Camila Fernandes Higa. Selective Laser Sintering of Copper-Nickel and Molydenum Alloy to be Used as EDM Electrodes. 2011. (Master’s Degree in Mechanical Engineering) – Pontifícia Universidade Católica do Paraná, Coordination for the Improvement of Higher Education Personnel. Advisor: Fred Lacerda Amorim.

2008: Rodrigo Trebien. Thermal comfort Sensitivity Analysis and Sensor Development for Control Purposes. 2008. 0 f. (Master’s Degree in Mechanical Engineering) – Pontifícia Universidade Catóica do Paraná, National Council for Scientific and Technological Development. Advisor: Nathan Mendes


DOCTOR´S DEGREE in ENGLISH LANGUAGE (written and defended with foreign evaluator).

2019: Denise Tholken. Enriched Modified Local Green’s Function Method Applied to Elasto Static Problems. (Doctor degree in Mechanical Engineering) – Pontifícia Universidade Católica do Paraná. Advisor: João Elias Abdalla Filho.

2018: Luciane Sopchenski Santos. Bactericidal Activity and Biocompatibility of TiO2 Coatings Doped with Bactericidal Elements. (Doctor degree in Mechanical Engineering) – Pontifícia Universidade Católica do Paraná. Advisor: Paulo César Soares Jr.

2018: Marcelo Pinto da Silva. Enriched Modified Local Green’s Function Method Applied to Elasto Static Problems. (Doctor degree in Mechanical Engineering) – Pontifícia Universidade Católica do Paraná. Advisor: João Elias Abdalla Filho.

2018: Walter Mazuroski. Intelligent Co-simulation: A Strategy to Solve Complex Building Energy Simulation Problems. (Doctor degree in Mechanical Engineering) – Pontifícia Universidade Católica do Paraná. Advisor: Nathan Mendes.

2017: Ana Paula de Almeida Rocha. On the Improvement of Building Energy Simulation by Means of Pixel Counting. (Doctor degree. in Mechanical Engineering) – Pontifícia Universidade Católica do Paraná. Advisor: Nathan Mendes.

2017: Lorena Freitas Dutra. Development of an Innovative Material of High Hygrothermal Performance. (Doctor degree in Mechanical Engineering) – Pontifícia Universidade Católica do Paraná. Advisor: Nathan Mendes.

2017: Luciano Ayres de Mello. Advanced Modeling of Heat, Air and Moisture (HAM) Transfer Through Porous Building Elements. (Doctor degree in Mechanical Engineering) Pontifícia Universidade Católica do Paraná. Advisor: Luis Mauro Moura.

2015: Ricardo José Bertin. A Numerical Investigation of Internal Failure Pressure of Pipelines Containing a Single and Double Pit Corrosion Defect, Considering Plasticity. (Doctor degree in Mechanical Engineering) – Pontifícia Universidade Católica do Paraná. Advisor: João Elias Abdalla Filho.

2010: Roberto Zanetti Freire. Numerical Simulation of Photovoltaic Hybrid Ventilation Systems Combined with a Whole-Building Hygrothermal Model. 2010. 0 f. (Doctor degree in Mechanical Engineering) – Pontifícia Universidade Católica do Paraná, Coordination for the Improvement of Higher Education Personnel. Advisor: Nathan Mendes.


INTERNATIONAL RECRUITMENT NOTICE FOR FACULTY MEMBER

2015: Research Activities in the Strategic Area of Energy. Scientific profile: The candidates must demonstrate scientific leadership, international insertion, and coordination of R&D projects, agreements for cooperation, and exchange with other institutions in the country and abroad, as well as nucleation research groups. Other reference parameters are supervision of at least four (4) theses and relevant scientific productions characterized by regularity in the dissemination at national and international conferences with their students’ participation. They preferably have published books on their work in the area and at least eighteen (18) publications in journals of scientific relevance in the areas related to the present professorship call. Brazilian candidates must have a PQ-1A profile of the Brazilian Research Council (CNPq).

2015: Research Activities in the Area of Solid Mechanics:. Scientific profile: Computational Solid Mechanics: Apply concepts and techniques of computational mechanics to study typical problems of mechanics of solids such as stress and strain analysis, dynamics and structural vibration, failure and fracture analysis, stability, and structural analysis. Vibration and Acoustics: studies on vibration control of machines and equipment, structural vibrations, modal analysis, vehicular dynamics, maintenance, machine noise, and environmental acoustics. 


COURSES TAUGHT IN ENGLISH

  • Heat and Mass Transfer in Buildings
  • Numerical Methods for Diffusion Phenomena in Building Physics: Theory and Practice

2017/2021 – APPLICATION OF VEGETABLE-BASED CUTTING FLUIDS IN CARBON STEEL MILLING, AIMING AT ENVIRONMENTALLY FRIENDLY PROCESS IMPROVEMENT

Partner company / industry; SpecialMix Ltda

Resources involved and grants; R $ 30,000.00

Brief project description (50 words)

The project is the subject of a doctoral dissertation by student Vitor Baldin (defense scheduled for February 2022) and aims to investigate the lubricant and cooling efficiency of three types of cutting fluids (two vegetable-based and one mineral-based, for comparison) in the face milling of a conventional carbon steel (ABNT 1045) when applied by the Minimum Quantity Lubrication (MQL) technique. Machining without the use of cutting fluid (dry) will also be investigated for comparisons. It also aims, based on the results with the three cutting fluids, to propose a new formulation of a vegetable-based cutting fluids, with higher cooling-lubrication efficiency in compliance with current environmental standards.


2019/2020 – RESEARCH AND INNOVATION FOR THE DEVELOPMENT OF LOW-COST SILICONE MOLDS FOR MANUFACTURING BATOM CHOCOLATE CANDY

(Project in progress — Members: Ricardo, Paulo, César, and Luciane)

Partner company/industry: Grupo Boticário

Resources involved and scholarships: R $ 150,000.00

Brief project description (50 words): This project emerged from the need of Boticário Group to precisely understand the manufacturing process and material used in the silicone mold for manufacturing Baton chocolate candy. Developing a national supplier for silicone molds reduces the manufacturing costs of its chocolate candy and enables it to develop new molds within a process of continuous improvement.

The Project signed with PUCPR on 12/22/2018, through the celebration of 4TA, started on 12/3/2018 and will end on 11/29/2019. AGENC / 02303/2018 (Numbering in Sistema Benner — Tab to be received).


2019/2020 – RESEARCH AND DEVELOPMENT OF NEW MATERIALS FOR INCREASING LSZH THERMOPLASTIC ADHESION WITH METALLIC WIRE APPLIED TO OPTICAL CABLES

(Project submitted for approval — Members: Paulo and Ricardo)

Partner company/industry: FIBRACEM TELEINFORMÁTICA LTDA

Resources involved and scholarships: R$ 132.000,00

Brief project description (50 words): The low adhesion between optical cable support wires and LSZH thermoplastic material makes the cable very malleable. For the cable to be rigid, the wires and fiber must be well adhered with the thermoplastic material. This project aims to propose research and development of new additives to LSZH thermoplastic material and silanization of metallic wire that increases the metallic wire adhesion to the thermoplastic material while ensuring LSZH class toxicity and flammability properties.

The Project signed with PUCPR on 4/4/2019, via 1TA, started on 6/5/2019 and will end on 03/30/2020. AGENC /03431/2019 (Numbering in Sistema Benner — Tab to be received).


2019/2020 – DEVELOPMENT FOR BALLISTIC TESTING EQUIPMENT ON ARMORED GLASS

Members: Paulo and Sérgio Manentti

Partner company/industry: AGP – American Glass Products do Brasil

Resources involved and scholarships: R$ 50.000,00 (we are still developing the proposal)

Brief project description (50 words): The materials used in manufacturing lightweight armored glass (polycarbonate and glass) must be tested routinely to meet the ISO 6603 standard, with determination of puncture impact behavior of rigid plastics. Currently, the ballistic test is carried out by the company using firearms and special ammunition, which involves a high operational cost and standard charges. This test can be replaced by another using an impact machine, with the weight and speed of a spherical tip determined in the standard. This project aims to design and build equipment for the impact test and then provide services to the company.

The Project signed with PUCPR on 12/1/2017, via 1TA, started on 11/28/2017 and ended on 11/28/2018. It was subject to extension through the contractual amendment. It will expire on 01/29 / 2021. AGENC /15775/2017-003 (Numbering in Sistema Benner — Tab to be received).


2019/2020 RESEARCH AND DEVELOPMENT OF TELECOMMUNICATIONS RACKS

Members: Key Fonseca de Lima, Luis Mauro Moura, Nilson Barbieri, and Alisson Zanetti.

Partner company/industry: NILKO Tecnologia LTDA

Resources involved and scholarships: R$ 94.800,00 

Description: Telecommunications racks are designed to receive electronic equipment to meet the demand for reception, control, and transmission of communication and data. The present project aims to develop a telecommunications cabinet to meet the new 5G technology concerning low noise, heat, and vibration. This project is being developed with resources from Nilko Tecnologia LTDA.

The Project signed with PUCPR on 09/12/2019, via 6TA, started on 10/01/2019 and will finish on 09/30/2020.

Faculty

Álisson Rocha Machado

CNPq Research Productivity Scholarship (PQ 1A). Doctor’s degree from the University of Warwick England, (1990). Post-doctorate from the University of Warwick, England, (1995–-1996). Master´s Degree from UFSC —- Universidade Federal de Santa Catarina, (1982). Research Group: Materials Technology and Manufacturing Processes —- PUCPR (Researcher). Research Field: Machining Technology with Defined Cutting Tool Geometry.

Fred Lacerda Amorim

CNPq Research Productivity Scholarship (PQ 2). Doctor’s degree from UFSC —- Universidade Federal de Santa Catarina, (2002 (in collaboration with RWTH-WZL — -Aachen, Germany; 2002). Master’s Degree from UFSC —- Universidade Federal de Santa Catarina (, 1996). Research Group: Materials Technology and Manufacturing Processes - — PUCPR (leader). Research Field: Electro-erosion Machining Technology (Electrical Discharge Machining —- EDM), Machining Technology with Defined Cutting Tool Geometry.

Hsu Yang Shang

Doctor’s degree from PUCPR - Pontifícia Universidade Católica do Paraná, 2014. Master’s Degree from PUCPR - Pontifícia Universidade Católica do Paraná, 2009. Research Group: Solid Mechanics - PUCPR (Researcher).

José Mario Fernandes Paiva Junior

He is a post-doctorate fellow in Mechanical Engineering at McMaster University and holds a Doctor’s degree in Mechanical Engineering from PUCPR - — Pontifícia Universidade Católica do Paraná in collaboration with McMaster University - — MMRI McMaster Manufacturing Research Institute (Canada), (2015). He is currently an assistant professor and researcher at McMaster University.

Key Fonseca de Lima

Doctor’s degree from UFSC- Universidade Federal de Santa Catarina, in (2008). Master's Degree from PUCPR - — Pontifícia Universidade Católica do Paraná, (2001). Research Group: Solid Mechanics - — PUCPR, Research Fields: Vibrations and Acoustics .

Luís Mauro Moura

Doctor’s degree from the Institut National des Sciences Appliquées de Lyon, INSA / LYON, France, (1998). Master’s Degree from UFSC —- Universidade Federal de Santa Catarina, (1993). Research Groups: Thermal Systems Laboratory —- PUCPR (Researcher), Research Fields: Science and Technology in Transport Phenomena, Hygrothermal Analysis, and Energetics of Environment, Energy Efficiency in Thermal Systems.

Michelle Sostag Meruvia

Doctor’s degree from the UFPR – Universidade Federal do Paraná, (2004). Master's Degree from UFPR – Universidade Federal do Paraná, (1999). Research Group: Materials Technology and Manufacturing Processes —- PUCPR (Collaborator). Research Fields: Materials and Manufacturing Processes, Sensors, Electrical and Magnetic Characterization of Thin Films.

Nathan Mendes

CNPq Research Productivity Scholarship (PQ 1B). Doctor’s degree from UFSC – Universidade Federal de Santa Catarina , 1997 (in collaboration with the Lawrence Berkeley National Laboratory, University of California –, Berkeley, USA; 1997). Master’s Degree from UFU – Universidade Federal de Uberlândia, (1993). Research Groups: Thermal Systems Laboratory —- PUCPR (leader), Control System Design and Automation —- PUCPR (Research). Research Fields: Heat and Moisture Transfer in Buildings, Energy Efficiency in Thermal Systems, Hygrothermal Performance of Buildings.

Nilson Barbieri

CNPq Research Productivity Scholarship (PQ 2). Doctor’s degree from UNICAMP – Universidade Estadual de Campinas, 1993. Master's Degree from UNICAMP – Universidade Estadual de Campinas, 1989. Research Group: Solid Mechanics —- PUCPR (leader). Research Fields: Vibrations and Acoustics.

Paulo César Philippi

CNPq Research Productivity Scholarship (PQ 1A). Doctor’s degree from Université de Provence, France, (1980). Master’s Degree from the National Institute for Space Research, INPE, (1975). Research Group: Thermal Systems Laboratory —- PUCPR (researcher). Research Fields: Porous Media, Multiphase and Multicomponent Systems, Discrete Kinetic Models in Fluid Mechanics, Immiscible displacements in porous media, Phase Transition, Fundamentals of Thermodynamics.

Paulo César Soares Júnior

CNPq Research Productivity Scholarship (PQ 1D). Doctor’s degree from UFSCar – Universidade Federal de São Carlos, (2002). Master's Degree from UFSCar – Universidade Federal de São Carlos, (1997). Research Group: Materials Technology and Manufacturing Processes —- PUCPR (Researcher). Research Fields: Surface Engineering – Mechanical, tribological and corrosive properties of modified surfaces and coatings; Biomaterials – bactericidal and bioactive metallic coatings and bioglasses; Glasses and Glass-ceramics – uses of recycling waste materials and glass crystallization.

Ricardo Diego Torres

CNPq Research Productivity Scholarship (PQ 2). Doctor’s degree from Colorado School of Mines, C.S.M., USA (- 1998). Master’s from UFRGS – Universidade Federal do Rio Grande do Sul, (1993). Research Group: Materials Technology and Manufacturing Processes —- PUCPR (leader). Research Fields: Materials and Manufacturing Processes and Surface Engineering Applied to Material Machining.

Viviana Cocco Mariani

CNPq Research Productivity Scholarship (PQ 1B). Doctor’s degree from UFSC – Universidade Federal de Santa Catarina, (2002). Master's Degree from UFSC – Universidade Federal de Santa Catarina, (1997). Post-doctoral fellow from Ph.D. from the University of Padua(Italy), (2018). Research Group: Research Group on Thermo Energetic Systems –- NPST –- PUCPR (Researcher). Research Fields: Heat and Mass Transfer, Fluid Mechanics, Turbulence Flow Modeling, Inverse Problems, Optimization methods, Renewable Energy, Forecasting, Time Series, Machine Learning.

Courses

Building Energy Simulation

Introduction to building energy simulation. Heat and mass balances in buildings. Solar geometry. Psychometrics. Basics of Thermal Comfort. HVAC systems. Building energy simulation. Applications.

Credits: 3

Microstructural Characterization of Materials

General principles of quantum mechanics and spectroscopy: Interaction of radiation with matter, absorption, and emission. Radiation, penetration depth, damage, resolution, loss. Scanning Electron Microscopy (SEM) and Energy Dispersion Spectroscopy (EDS). Fundamentals and experimental practice. Transmission Electron Microscopy (TEM). Fundamentals and results analysis. Atomic Force Microscopy (AFM). Fundamentals and results analysis. X-ray diffraction (XRD). Fundamentals and experimental practice. Vibrational spectroscopy: Raman, infrared absorption (FTIR). Fundamentals and experimental practice. X-ray excited photoelectron spectroscopy (XPS). Fundamentals and results analysis. Differential Scanning Calorimetry (DSC) and Differential Thermal Analysis (DTA). Fundamentals and experimental practice. Wettability and surface energy. Fundamentals and experimental practice.

Credits: 3

Heat Conduction

Introduction to heat transfer. Analytical Methods and Numerical Methods applied to Problems in Permanent and Transient Regime for different geometries. Energy balance. Variable separation technique. Laplace transform. Green’s Function Method. Application of finite volumes to problem-solving.

Credits: 3

Dynamics of Structures

Physical concepts and mathematical models for the dynamic analysis of structures with a degree of freedom and multiple degrees of freedom are subject to free or forced vibration, damped or undamped. The ideal solution of a differential equation, numerical methods, Duhamel integral, transform method are presented. Newmark method and central difference method are covered.

Credits: 3

Vehicle Dynamics

Basic introduction of dynamics. Introduction to vehicular dynamics. Vehicle behavior under acceleration. Braking. Loads on wheels. Moving vehicle. Vehicle response in curves. Lateral load transfer. Suspensions. Development of computational routines using the Simulink/Matlab program.

Credits: 3

Finite Elements 1

Introduction to the finite element method (FEM). Discrete systems analysis. Analysis of elasticity problems. Direct method. MEF generalization: Galerkin method (weighted residuals) and variational approach. Plane stress, plane strain and axisymmetric problems. Three-dimensional stress analysis. Approximating and shape functions. Mapped finite elements – isoparametric elements. Beam analysis. Mesh configuration. Convergence and error analysis. Strain gradient notation. Computational aspects.

Credits: 3

Finite Elements 2

Introduction to nonlinear analysis of solids and structures. Geometric nonlinear analysis. Nonlinear physical or material analysis. Fundamentals of continuum mechanics. Finite elements of the axial action bar. Finite beam elements. Plane solid finite elements.

Credits: 3

Finite Elements for Acoustics

Wave equation for stationary domains. Two- and three-dimensional acoustic domains. Axisymmetric domains. The characteristic equation of finite elements. Boundary conditions for solving the characteristic equation. Reactive and dissipative acoustic filters.

Credits: 3

Mechanical Testing of Materials

Hardness tests – Mohs, Macroscale: Rockwell and Brinell and Micro: Vickers and Knoop. Fundamentals, technical standards, and experimental practice. Instrumented indentation test – Nanoscale. Fundamentals, technical standards, and experimental practice. Tensile and compression test. Fundamentals, technical standards, and experimental practice. Impact test –Charpy and Izod. Fundamentals, technical standards, and experimental practice. Fracture toughness tests: SENB, Chevron, VIF. Fundamentals, technical standards, and experimental practice. Risk tests. Fracture and adhesion models of coatings. Fundamentals, technical standards, and experimental practice. Tribology tests. COF measures and wear rate. Fundamentals, technical standards, and experimental practice.

Credits: 3

Teaching Internship

Work and student internship to assist PPGEM professors, accompanied by the professor of the course.

Credits: 3

Independent Study in Manufacturing I

A study directed at Master´s/Doctoral students works – 1st stage

Credits: 3

Independent Study in Manufacturing II

A study directed at Master´s/Doctoral students works – 2nd stage

Credits: 3

Independent Study in Solid Mechanics I

A study directed at Master´s/Doctoral students works – 1st stage

Credits: 3

Independent Study in Solid Mechanics II

A study directed at Master´s/Doctoral students works – 2nd stage

Credits: 3

Independent Study in Thermal Sciences and Engineering I

A study directed at Master´s/Doctoral students works – 1st stage

Credits: 3

Independent Study in Thermal Sciences and Engineering II

A study directed at Master´s/Doctoral students works – 2nd stage

Credits: 3

 

Ethics and Philosophy of Science

Analysis and reflection on the necessary foundations of science and ethics. The relationship between theory and practice in contemporary times. They overlap between values, moral conscience, research, social implications of science, professional practice, and social responsibility.

Credits: 3

Conventional Machining Fundamentals

Introduction. Parameters in the Cutting Process. Cutting Tools Geometry. Chip Formation. Chip Control. The Chip-tool Interface. Machining Force, Specific Cutting Pressure, and Machining Power. Cutting temperature. Materials for Cutting Tools. Wear and Wear Mechanisms of Cutting Tools. Tool Life and Influencing Factors. Cutting fluids. Surface integrity.

Credits: 3

Materials Science Fundamentals

Materials and Engineering. Atomic structure, electronic structure of atoms, and chemical bonds. Crystalline structure and crystalline systems. Crystalline structure analysis. Techniques for identifying microstructure and defects — optical microscopy, SEM, MET, AFM, and TSM. Solidification and nucleation, solid solutions, and defects. Kinetic Processes in Solids: Diffusion. Alloys and binary phase diagrams — thermodynamic equilibrium and Gibbs phase rules. Polymers. Ceramic. Composite materials. Thermal and mechanical properties of materials — Deformation mechanisms; toughness; fracture and fatigue; fluency.

Credits: 3

Fundamentals of Non-Conventional Machining Processes

Process technology for thermal removal by electrical discharge (Sinking Electrical Discharge Machining and Wire Electrical Discharge Machining). Chemical Removal. Electrochemical Removal. Ultrasound Removal. Laser Removal. Materials Removal by Laser Beam. Water Jet Removal.

Credits: 3

Fundamentals of Acoustics

Principles of acoustics. Wave equation. Wave propagation. Transmission of waves between media. Reactive and dissipative acoustic filters. The acoustics of open and closed environments. Absorbent materials characterization. Sound absorption. Measurement of acoustic quantities. Isolation and control of noise and automotive acoustics.

Credits: 3

Identification of Engineering Parameters

Parameters, properties, and states. Error Theory. Error propagation and combination. Parameter estimation methods for linear and nonlinear models. Sensitivity coefficients. Sensitivity to experimental errors: identifiability conditions. Experiment optimization. Introduction to inverse methods.

Credits: 3

Introduction to Polymer Physics

Classification and fundamental concepts. Molar mass ordered distribution and structure. Polymerization, crystallization, and morphology. Dependence on properties with chemical structure. Mechanical properties. Fracture and Fluency. Basic principles of polymer processing.

Credits: 3

Advanced Mathematics

Linear algebra, matrices, vectors, determinants, eigenvalues, ​​and eigenvectors. Differential Vector Calculation: Gradient, Divergent, and Rotational. Integral Vector Calculus: Integral Theorems. Tensorial Analysis. Ordinary Differential Equations. Laplace transform. Fourier series. Orthogonal series of polynomials.

Credits: 3

Fluid Mechanics

Continuous hypothesis. Eulerian and Lagrangian descriptions of the movement. Material and local derivatives. Trajectories, current lines, and emission lines. Dilation. Reynolds Transport Theorem. Continuity equation. Deformation and strain rate. Vorticity. Fluid stresses. Cauchy’s principle and the balanced equation of the amount of movement. The tension tensioner. Hydrostatic pressure. Principal axes of the tension and isotropy tensor. Stokesian fluids. Constitutive equations. Newtonian fluids. Equations of motion for a Newtonian fluid. Reynolds’ number. Energy dissipation by viscous forces. The balanced equation for energy. Entropy. Introduction to turbulence.

Credits: 3

Mechanical Testing of Materials

Hardness tests – Mohs, Macro Scale: Rockwell and Brinell and Micro: Vickers and Knoop. Fundamentals, technical standards, and experimental practice. Instrumented indentation test -nanoscale. Fundamentals, technical standards, and experimental practice. Tensile and compressive test. Fundamentals, technical standards, and experimental practice. Impact test -Charpy and Izod. Fundamentals, technical standards, and experimental practice. Fracture toughness tests: SENB, Chevron, VIF. Fundamentals, technical standards, and experimental practice. Scratch tests. Fracture and adhesion coatings’ models. Fundamentals, technical standards, and experimental practice. Tribology tests. COF and wear rate. Fundamentals, technical standards, and experimental practice.

Credits: 3

Kinetic Methods in Fluid Mechanics

Introduction: the kinetic method in fluid mechanics. Applications for physical modeling in engineering problems. Boltzmann’s equation. Equilibrium solution. Repulsion term properties. Kinetic models. Macroscopic equations. LBM discretization problem in LBM. Speed discretization. LBM scale analysis: recognizing the sources of numerical errors. Numerical stability of LB algorithms: the entropic, MRT (multiple relaxation times), and regularization methods. Boundary conditions. Kinetic equations for non-ideal fluids. Phase transitions, non-ideal mixtures, and immiscible fluid flows.

Credits: 3

Metrology and Mechanical Instrumentation

Basic measurement and instrumentation concepts. Acquisition, processing, and experimental data analysis. Basic electrical measurements and sensor systems. Measuring displacement and area, pressure, flow, temperature, force, torque, deformation, movement, vibration, acoustics, thermal quantities, and transport.

Credits: 3

Mechanical Properties of Materials

Discrepancy and plastic deformation; Resistance increase mechanisms: Solid solution hardening; Martensitic transformation hardening; Precipitation hardening; Hardening by grain refining; Plastic deformation hardening; Traction properties; Toughness; Impact; Fracture; Fatigue and fluency.

Credits: 3

PVD Coatings: Properties and Applications

Deposition Methods. Surface modification principles: mechanical and chemical. Metal deposition and ceramic coating techniques: Physical Vapor Deposition (PVD) and Chemical Vapor Deposition (CVD). Mechanical and tribological properties of ceramic tiles. Aspects of coating adhesion on a steel substrate. Coatings for cutting tools and dies.

Credits: 3

Special Topics -Biomaterials

Introduction to the study of Biomaterials: history, current applications, trends. Types of Biomaterials: metallic, ceramic, polymeric, and composites, emphasizing on microstructure correlation, properties, and processing. Biological Materials: structure and properties of the primary tissue types. Biological response to Biomaterials. Biomaterials and Tissue Engineering. Biomaterial Characterization.

Credits: 3

Thermodynamics

The first law of thermodynamics. The second law of thermodynamics. Sadi Carnot and Emile Clapeyron. Reversible and irreversible cycles. Dissipation in thermodynamics. Clausius inequality. Entropy. Internal non-equilibrium as source of entropy. Prigogine diS and deS. Thermodynamic equilibrium. Gibbs potential. Homogeneity. Gibbs-Duhem equation. Thermodynamic potentials. Maxwell relations. Minimum principles. Phase transitions. Equations of state. Van der Waal’s approach. Phase diagram. Maxwell area rule. Calculation of thermodynamic properties in term of the temperature an specific volume. Introduction to non-equilibrium thermodynamics.

Credits: 3

Material Thermodynamics

Concepts of Classical Thermodynamics and Statistical Mechanics. Ideal gas properties and thermodynamics laws. Static and quasi-static processes, Heat and reversible process work, and entropy. Thermal material properties. Enthalpy and Helmholtz free energy. Balance, Gibbs-free energy, and chemical potential. Phase balance in unitary systems. Binary phase diagrams. Ellingham diagrams and oxidation processes. Thermodynamics of electrochemical processes and corrosion. Vacancies and diffusion in solid solutions. Interfaces and surfaces. Nucleation and solidification.

Credits: 3

Special Topics in Engineering: Fortran Programming

Basic programming concepts and software structures are presented, as well as flow control syntax, decision structure, and basic I/O concepts. Intrinsic functions of Fortran language to deal with variables of scalar and vector quantities are presented. Finally, the dynamic location of vector memory, the function creation, subroutine, and modules are presented.

Credits: 3

Special Topics - Biomaterials

Introduction to Biomaterial studies: history, current applications, and trends. Types of Biomaterials: metallic, ceramic, polymeric, and composites, emphasizing on microstructure correlation, properties, and processing. Biological Materials: structure and properties of the main types of tissues. Biological response to Biomaterials. Biomaterials and Tissue Engineering. Biomaterials Characterization.

Credits: 3

Computational Heat Transfer

Finite Differences Method: Discretization by approximating derivatives, Boundary Conditions, Types of formulations, 1D and 2D Implementation, Linear equation system solving methods. Finite Volume Method: Governing equations in generalized form, Discretization through control volumes via integral approximation, Boundary Conditions, Source terms and nonlinearities, Types of formulations, Interpolations, Co-located and mismatched variable arrangement, Simultaneous and segregated equation (notions) solution, pressure-velocity coupling (notions).

Credits: 3

Radiation Heat Transfer in Semitransparent Media

Theoretical basis: Electromagnetic Theory. Flat Wave. Radiative Properties of Materials. Radiative Transfer Equation. Radiative properties of particulate media. Radiative properties of gases. Solution Methods for the Radiative Transfer Equation: Exact, approximate, and numerical solutions. Discrete Ordinance Method. Conduction and convection couplings.

Credits: 3

Transport Phenomena in Building Physics

Introduction to building physics. Diffusive phenomena in building physics. The finite-difference approach applied to transient heat and mass diffusions process in building physics. Other numerical methods for predicting diffusion phenomena in building physics. Convective phenomena in building physics. Applications.

Credits: 3

Thermal and Thermal-Chemical Treatment

Fe/C system heat treatment of Annealing; Normalization; Temper; Austempering; Tempering; Precipitation. Heat treatment of non-ferrous alloys; Tool steel; Stainless steel; Titanium alloy. Phase transformations that occur in the cooling and heating of different metallic alloys. Transformation kinetics. Diffusion models of light elements in Iron. Thermochemical treatment: Boretation; Nitriding, and Cementation.

Credits: 3

Metal Cutting

Machinability Tests. Economic Cutting Conditions. Machining of Magnesium and its Alloys. Machining of Aluminum and its Alloys. Machining of Copper and its Alloys. Machining of Carbon and Alloy Steels. Machining of Austenitic Stainless Steels. Machining of Cast Iron. Machining of Titanium and its Alloys. Machining of Nickel and its Alloys.

Credits: 3

More Information

Characteristics of the Master’s Degree Program:

Minimum curriculum requirements for the Master’s in Mechanical Engineering to be fulfilled by the student are:

  • Six engineering courses (eighteen credits)
  • Two human science courses (four credits)
  • Thesis work (six credits)

CAPES or CNPq scholarship holders should also complete a Teaching Internship. The program’s duration is a minimum of twelve months and a maximum of twenty-four months, with the possibility of a six-month extension on a case-by-case basis.

Characteristics of the Doctor´s Degree Program:

Minimum curriculum requirements for the Ph.D. in Mechanical Engineering Program to be fulfilled by the student are:

  • Twelve engineering courses (thirty-six credits)
  • Two human science courses (four credits)
  • Dissertation work (twelve credits)

CAPES and CNPq scholarship holders should also do a Teaching Internship. The program’s duration is a minimum of twenty-four months and a maximum of forty-eight months, with the possibility of a six-month extension on a case-by-case basis. Classes for both programs are taught at different times (morning, afternoon, and evening) during the week and, occasionally, on Saturday mornings.

Mission and Vision at PUCPR’s PPGEM

Train highly qualified Masters and Doctors in the Science and Mechanical Engineering Area engaged in socio-economic development through research and innovation to meet society’s demands.

In the same process, PUCPR’s PPGEM Vision was reformulated, according to its strategic planning. Its vision for the future is:

To be nationally and internationally recognized for EXCELLENCE and INNOVATION in teaching, research, and knowledge production, with an impact on social, economic, political, and environmental development.

PUCPR’s PPGEM guidelines establish that, during the development of their research work, their master´s and doctoral students act as professionals engaged in the country’s technological and scientific development — both in teaching and in research and extension — because the Master’s and Ph.D. degree research developed focuses on current regional, national, and international interests.

Students are encouraged into entrepreneurship aimed at innovation in the industrial environment (in which a large portion operate), generation of small companies (incubated), and new practice development for improved higher education.

PPGEM Doctor´s Degree: It can be noted that 23% are in the industrial environment and government agencies, and 77% are undergraduate and graduate professors at Federal Universities (UFPR, UTFPR), at PUCPR itself and as postdoctoral students in PPGEM at PUCPR and Universities in France, Belgium, and Canada. This demonstrates the high quality of human resources educated by PPGEM, as well as their social insertion with regional and international academic and industrial communities and with core research groups at other national Institutes of Higher Education.

 

Technical Production – SOFTWARE

Description: Over the past 22 years, mathematical models, numerical methods, computer programs, and experimental techniques have been developed —described in more than 200 publications in journals and annals — for the study of the hygrothermal and energetic behavior of environments, as well as air conditioning systems. It culminated in the advancement of the Domus energy simulation program, the history of which can be found at http://domus.pucpr.br.

The essential research work of Domus is mainly developed on three fronts. The first is aimed at improving mathematical models for calculating combined heat, air, and humidity transfer in buildings. The second aims at modeling, testing, controlling, and improving air conditioning systems, and the third — with an innovative character — focused on the production of computational instruments that integrate previous fronts, becoming useful instruments for civil construction, air conditioning, and energy.

Domus is used in undergraduate and graduate courses in Brazil for teaching and research — with 5034 downloads (from January 2012 to 6/16/2019) in all states — through free distribution at www.domus.pucpr.br, directly connecting PUCPR’s PPGEM with society and the market.

 

Technical Production – PATENT

Patent: Innovation Privilege. Register: BR1020170177289

Title: “Revestimento de implante de óxido de titânio dopado com boro biocompatível (Titanium oxide implant coating doped with biocompatible boron)”

Registration institution: INPI – National Institute of Industrial Property. Deposit: 08/18/2017

Soares, Paulo C.; Santos, Luciane S. Titanium oxide implant coating doped with biocompatible boron. 2017, Brazil.

Description: Hospital-acquired infections (HAIs) are one of the significant challenges currently facing healthcare and are responsible for more than 4.5 million cases in Europe, resulting in over 37 thousand deaths annually and about 690,000 cases in the US, with more than 70,000 deaths annually. In the USA, extra spending on HAIs is estimated at $9.8 billion, while Europe has an expenditure of € 7 billion per year. Therefore, there is an increase in the development of economically viable alternatives for HAI reduction by the industrial, academic, and health system sectors. This patent describes a technique for modifying titanium surfaces and their alloys to form an oxide layer that is bioactive and bactericidal. Incorporation of the element Boron is the big news and can replace Silver as a bactericidal element as Silver can cause adverse reactions in some patients. This multifunctional surface is applied in biomedical devices such as dental implants, orthopedic prostheses, and pacemakers. It can prevent bacterial contamination in patients and reduce the postoperative cost and the length of hospital stays.

Since 2011, PUCPR has engaged in a project called Excellence in Stricto Sensu that is aimed at internationalizing the institution’s programs to achieve maximum scores of 6 and 7 and to promote transdisciplinarity and innovation in different areas of knowledge, especially in its strategic areas. The PIBIC master program is one its greatest differentials (it allows talented students to attend both undergraduate and graduate stricto sensu programs and develop part of their research in a highly qualified foreign institution) as well as being in harmony with society and focusing on innovation.

The institution must also be constantly attentive to the changing needs of the society, with alignment/realignment to the CAPES criteria and oriented to develop internationally, having internationalization as its main guide in the search for quality in teaching and research.

Every graduate program must meet the criteria set by their corresponding committee; therefore, each program strategic planning and operating criteria needs to be done accordingly.

Criteria for each area need to be discussed within the program annually so that all necessary and appropriate corrective actions can be taken during the four-year period. Each program is committed to structuring and readjusting its strategic planning annually in search of excellence. In addition, the programs are encouraged to rethink their lines of research in order to adapt to the rapid changes that may occur in international and national scenarios.

This graduate program’s dynamism and flexibility must always meet quality criterion both in master’s and doctoral training and in the development of research and innovation, essentially aiming at the improvement of society. Thus, an annual review of each program strategic planning is requested that contains the topics below at a minimum:

  • i. Mission and vision of the program;
  • ii. Summarized annual opinion produced by an external evaluator; the annual evaluation by an external member is an institutional practice conducted since 2006, which allows for the annual performance of each program to be assessed according to the area criteria;
  • iii. Strengths, weaknesses, opportunities, and risks (preparation of a SWOT matrix showing external and internal factors) considering the goals for the current and next four years;
  • iv. Goals (measurable objectives) established for the consolidation and development of strengths and improvement of weaknesses;
  • v. Actions (processes) necessary to achieve the objectives, people in charge, and monitoring instruments; in this topic, the coordinator and the institution should get involved to consider resizing the faculty and the student body, criteria for accreditation/re-accreditation, infrastructure, selection process, strategies to increase fundraising, and citations and innovation, among other items;
  • vi. Preliminary text of the program’s self-assessment describing the last four years containing at least the following information: stages of the self-assessment process; analysis of results and achievement of objectives; necessary actions for its consolidation and internationalization;

The IDP (Institutional Development Plan) document presents the strategic plans of all the programs aligned with the institutional planning, containing the Mission, Vision, SWOT Matrix, Canvas, and road map, and providing information on the needs and intentions of the programs for the 2017–2020 and 2021–2024 quadrennium of the CAPES evaluation.