TY  - CONF
AU  - Ilić, Snežana
AU  - Džolev, Igor
AU  - Laban, Mirjana
PY  - 2023
UR  - http://rims.institutims.rs/handle/123456789/706
AB  - The problems of steady-state and transient heat conduction for a given geometry can be
solved analytically and numerically. While the use of analytical solutions is limited,
numerical methods can be used to solve heat transfer problems in complex geometries
with more intricate boundary conditions, using computer simulations. Complex
geometries are discretized to form an efficient numerical mesh for solving the given
problem. This paper focuses on the calculation of one-dimensional, transient heat
transfer for a wall with a thickness of 4 cm. The wall temperatures are calculated for
each mesh node at a given moment in time. Two types of analyses were performed,
using FSM analysis (Finite Strip Method) and FEM analysis (Finite Element Method).
The former was conducted using Microsoft Excel, while the latter was calculatedusing
ANSYS software. A parametric study was performed in order to analyse the influence
of spatial and temporal step size on the accuracy of the solution. Finally, the optimal
solution was determined to obtain temperature results with the lowest relative error
within the wall nodes, while maintaining the efficiency of the computational model.
C3  - INTERNATIONAL SCIENTIFIC CONFERENCE PLANNING, DESIGN, CONSTRUCTION AND BUILDING RENEWAL, iNDiS 2023, Proceedings
T1  - Optimal numerical model of a non-stationary heat transfer through a wall
UR  - https://hdl.handle.net/21.15107/rcub_rims_706
ER  - 

@conference{
author = "Ilić, Snežana and Džolev, Igor and Laban, Mirjana",
year = "2023",
abstract = "The problems of steady-state and transient heat conduction for a given geometry can be
solved analytically and numerically. While the use of analytical solutions is limited,
numerical methods can be used to solve heat transfer problems in complex geometries
with more intricate boundary conditions, using computer simulations. Complex
geometries are discretized to form an efficient numerical mesh for solving the given
problem. This paper focuses on the calculation of one-dimensional, transient heat
transfer for a wall with a thickness of 4 cm. The wall temperatures are calculated for
each mesh node at a given moment in time. Two types of analyses were performed,
using FSM analysis (Finite Strip Method) and FEM analysis (Finite Element Method).
The former was conducted using Microsoft Excel, while the latter was calculatedusing
ANSYS software. A parametric study was performed in order to analyse the influence
of spatial and temporal step size on the accuracy of the solution. Finally, the optimal
solution was determined to obtain temperature results with the lowest relative error
within the wall nodes, while maintaining the efficiency of the computational model.",
journal = "INTERNATIONAL SCIENTIFIC CONFERENCE PLANNING, DESIGN, CONSTRUCTION AND BUILDING RENEWAL, iNDiS 2023, Proceedings",
title = "Optimal numerical model of a non-stationary heat transfer through a wall",
url = "https://hdl.handle.net/21.15107/rcub_rims_706"
}

Ilić, S., Džolev, I.,& Laban, M.. (2023). Optimal numerical model of a non-stationary heat transfer through a wall. in INTERNATIONAL SCIENTIFIC CONFERENCE PLANNING, DESIGN, CONSTRUCTION AND BUILDING RENEWAL, iNDiS 2023, Proceedings.
https://hdl.handle.net/21.15107/rcub_rims_706

Ilić S, Džolev I, Laban M. Optimal numerical model of a non-stationary heat transfer through a wall. in INTERNATIONAL SCIENTIFIC CONFERENCE PLANNING, DESIGN, CONSTRUCTION AND BUILDING RENEWAL, iNDiS 2023, Proceedings. 2023;.
https://hdl.handle.net/21.15107/rcub_rims_706 .

Ilić, Snežana, Džolev, Igor, Laban, Mirjana, "Optimal numerical model of a non-stationary heat transfer through a wall" in INTERNATIONAL SCIENTIFIC CONFERENCE PLANNING, DESIGN, CONSTRUCTION AND BUILDING RENEWAL, iNDiS 2023, Proceedings (2023),
https://hdl.handle.net/21.15107/rcub_rims_706 .

TY  - CONF
AU  - Ilić, Snežana
AU  - Laban, Mirjana
AU  - Džolev, Igor
PY  - 2023
UR  - http://rims.institutims.rs/handle/123456789/599
AB  - The fire reaction represents the behavior of materials during a fire event, i.e., how much the material contributes to the fire development. The importance of determining the fire reaction class stems from the need to provide sufficient time for the individuals inside a building to evacuate safely in the event of a fire. The fire reaction class is determined through a series of tests, depending on the material, with the most significant test in this group being the SBI (Single Burning Item) test. The paper describes the preparation method of test samples, the testing procedure itself, as well as the output data used for determination of the fire resistance class for tested material. According to the SRPS EN 13823 standard, a sample of a multilayered facade system with mineral wool was tested. The testing process itself, as well as the processed results, are stated in the conclusionof the study.
C3  - Engineering Conference, Bečići, Crna Gora, Proceedings
T1  - Rection to fire - SBI test
UR  - https://hdl.handle.net/21.15107/rcub_rims_599
ER  - 

@conference{
author = "Ilić, Snežana and Laban, Mirjana and Džolev, Igor",
year = "2023",
abstract = "The fire reaction represents the behavior of materials during a fire event, i.e., how much the material contributes to the fire development. The importance of determining the fire reaction class stems from the need to provide sufficient time for the individuals inside a building to evacuate safely in the event of a fire. The fire reaction class is determined through a series of tests, depending on the material, with the most significant test in this group being the SBI (Single Burning Item) test. The paper describes the preparation method of test samples, the testing procedure itself, as well as the output data used for determination of the fire resistance class for tested material. According to the SRPS EN 13823 standard, a sample of a multilayered facade system with mineral wool was tested. The testing process itself, as well as the processed results, are stated in the conclusionof the study.",
journal = "Engineering Conference, Bečići, Crna Gora, Proceedings",
title = "Rection to fire - SBI test",
url = "https://hdl.handle.net/21.15107/rcub_rims_599"
}

Ilić, S., Laban, M.,& Džolev, I.. (2023). Rection to fire - SBI test. in Engineering Conference, Bečići, Crna Gora, Proceedings.
https://hdl.handle.net/21.15107/rcub_rims_599

Ilić S, Laban M, Džolev I. Rection to fire - SBI test. in Engineering Conference, Bečići, Crna Gora, Proceedings. 2023;.
https://hdl.handle.net/21.15107/rcub_rims_599 .

Ilić, Snežana, Laban, Mirjana, Džolev, Igor, "Rection to fire - SBI test" in Engineering Conference, Bečići, Crna Gora, Proceedings (2023),
https://hdl.handle.net/21.15107/rcub_rims_599 .

TY  - JOUR
AU  - Kijanović, Aleksandar
AU  - Ilić, Snežana
AU  - Mirković-Marjanović, Milica
PY  - 2023
UR  - http://rims.institutims.rs/handle/123456789/490
AB  - Unazad par godina, sve više pažnje se posvećuje poboljša-nju energetske efikasnosti zgrada. Iz tog razloga se posebna pažnja obraća na dokazivanje što boljih performansi proiz-voda koji se ugrađuju u objekte. U radu je urađena numerička i eksperimentalna analiza za dobijanje koeficijenta prolaženja toplote. Analiziran je giter-blok ispunjen kamenom vunom. Eksperimentalna analiza za dobijanje koeficijenta prolaženja toplote je urađena u skladu sa standardom SRPS U. J5.060, dok je numerička analiza izvršena primenom softvera THERM, čiji se proračun bazira na standardu ISO 15099. U radu je prikazana uporedna analiza rezultata dobijenih eksperimentalnim i numeričkim putem. Eksperimentalnim putem je dobijena vrednost za otpornost prema požaru za zid izrađen od šupljih giter-blokova. Zid je ispitan u skladu sa standardom SRPS EN 1364-1.
T2  - Integritet i vek konstrukcija, specijalno izdanje
T1  - Određivanje koeficijenta prolaza toplote i otpornosti prema požaru zida izrađenog od giter-blokova
EP  - 40
SP  - 35
VL  - 23
UR  - https://hdl.handle.net/21.15107/rcub_rims_490
ER  - 

@article{
author = "Kijanović, Aleksandar and Ilić, Snežana and Mirković-Marjanović, Milica",
year = "2023",
abstract = "Unazad par godina, sve više pažnje se posvećuje poboljša-nju energetske efikasnosti zgrada. Iz tog razloga se posebna pažnja obraća na dokazivanje što boljih performansi proiz-voda koji se ugrađuju u objekte. U radu je urađena numerička i eksperimentalna analiza za dobijanje koeficijenta prolaženja toplote. Analiziran je giter-blok ispunjen kamenom vunom. Eksperimentalna analiza za dobijanje koeficijenta prolaženja toplote je urađena u skladu sa standardom SRPS U. J5.060, dok je numerička analiza izvršena primenom softvera THERM, čiji se proračun bazira na standardu ISO 15099. U radu je prikazana uporedna analiza rezultata dobijenih eksperimentalnim i numeričkim putem. Eksperimentalnim putem je dobijena vrednost za otpornost prema požaru za zid izrađen od šupljih giter-blokova. Zid je ispitan u skladu sa standardom SRPS EN 1364-1.",
journal = "Integritet i vek konstrukcija, specijalno izdanje",
title = "Određivanje koeficijenta prolaza toplote i otpornosti prema požaru zida izrađenog od giter-blokova",
pages = "40-35",
volume = "23",
url = "https://hdl.handle.net/21.15107/rcub_rims_490"
}

Kijanović, A., Ilić, S.,& Mirković-Marjanović, M.. (2023). Određivanje koeficijenta prolaza toplote i otpornosti prema požaru zida izrađenog od giter-blokova. in Integritet i vek konstrukcija, specijalno izdanje, 23, 35-40.
https://hdl.handle.net/21.15107/rcub_rims_490

Kijanović A, Ilić S, Mirković-Marjanović M. Određivanje koeficijenta prolaza toplote i otpornosti prema požaru zida izrađenog od giter-blokova. in Integritet i vek konstrukcija, specijalno izdanje. 2023;23:35-40.
https://hdl.handle.net/21.15107/rcub_rims_490 .

Kijanović, Aleksandar, Ilić, Snežana, Mirković-Marjanović, Milica, "Određivanje koeficijenta prolaza toplote i otpornosti prema požaru zida izrađenog od giter-blokova" in Integritet i vek konstrukcija, specijalno izdanje, 23 (2023):35-40,
https://hdl.handle.net/21.15107/rcub_rims_490 .

TY  - CONF
AU  - Mitrović, Stefan
AU  - Todorović, Goran
AU  - Kostić, Bojan
AU  - Mirković-Marjanović, Milica
AU  - Božović, Nikola
AU  - Krstić, Marija
AU  - Erić, Aleksandar
AU  - Gospavić, Radovan
AU  - Ilić, Snežana
AU  - Kijanović, Aleksandar
PY  - 2022
UR  - http://rims.institutims.rs/handle/123456789/602
AB  - The paper presents uniaxial compressive strength test according to SRPS EN 1926. Uniaxial compressive strength test was performed on 12 identical cube-shaped specimen’s dimensions 70 mm x 70 mm x 70 mm, which are made of sandstone. Samples were brought form Laz tunnel and were divided into two groups of six samples. First group of samples consists of 6 samples tested for uniaxial compressive strength. Second group of samples consists of 6 samples exposed to standard fire test according to SRPS EN 1363-1, with the intention to test uniaxial compressive strength after standard fire test. The aim of this study was to examine the uniaxial compressive strength of the rock, before and after standard fire test on the rock mass. The paper presents the strengths of the specimens tested before and after standard fire test.
C3  - Peti simpozijum DGM (Društvo za geotehnika na Makedonija), Ohrid, Zbornik radova
T1  - Uniaxial compressive strength test before and after standard fire test on rock mass
UR  - https://hdl.handle.net/21.15107/rcub_rims_602
ER  - 

@conference{
author = "Mitrović, Stefan and Todorović, Goran and Kostić, Bojan and Mirković-Marjanović, Milica and Božović, Nikola and Krstić, Marija and Erić, Aleksandar and Gospavić, Radovan and Ilić, Snežana and Kijanović, Aleksandar",
year = "2022",
abstract = "The paper presents uniaxial compressive strength test according to SRPS EN 1926. Uniaxial compressive strength test was performed on 12 identical cube-shaped specimen’s dimensions 70 mm x 70 mm x 70 mm, which are made of sandstone. Samples were brought form Laz tunnel and were divided into two groups of six samples. First group of samples consists of 6 samples tested for uniaxial compressive strength. Second group of samples consists of 6 samples exposed to standard fire test according to SRPS EN 1363-1, with the intention to test uniaxial compressive strength after standard fire test. The aim of this study was to examine the uniaxial compressive strength of the rock, before and after standard fire test on the rock mass. The paper presents the strengths of the specimens tested before and after standard fire test.",
journal = "Peti simpozijum DGM (Društvo za geotehnika na Makedonija), Ohrid, Zbornik radova",
title = "Uniaxial compressive strength test before and after standard fire test on rock mass",
url = "https://hdl.handle.net/21.15107/rcub_rims_602"
}

Mitrović, S., Todorović, G., Kostić, B., Mirković-Marjanović, M., Božović, N., Krstić, M., Erić, A., Gospavić, R., Ilić, S.,& Kijanović, A.. (2022). Uniaxial compressive strength test before and after standard fire test on rock mass. in Peti simpozijum DGM (Društvo za geotehnika na Makedonija), Ohrid, Zbornik radova.
https://hdl.handle.net/21.15107/rcub_rims_602

Mitrović S, Todorović G, Kostić B, Mirković-Marjanović M, Božović N, Krstić M, Erić A, Gospavić R, Ilić S, Kijanović A. Uniaxial compressive strength test before and after standard fire test on rock mass. in Peti simpozijum DGM (Društvo za geotehnika na Makedonija), Ohrid, Zbornik radova. 2022;.
https://hdl.handle.net/21.15107/rcub_rims_602 .

Mitrović, Stefan, Todorović, Goran, Kostić, Bojan, Mirković-Marjanović, Milica, Božović, Nikola, Krstić, Marija, Erić, Aleksandar, Gospavić, Radovan, Ilić, Snežana, Kijanović, Aleksandar, "Uniaxial compressive strength test before and after standard fire test on rock mass" in Peti simpozijum DGM (Društvo za geotehnika na Makedonija), Ohrid, Zbornik radova (2022),
https://hdl.handle.net/21.15107/rcub_rims_602 .

TY  - JOUR
AU  - Kijanović, Aleksandar
AU  - Mirković-Marjanović, Milica
AU  - Ilić, Snežana
PY  - 2022
UR  - http://rims.institutims.rs/handle/123456789/604
AB  - Passive fire protection is civil engineering discipline which is very popular for research and development of new construction products and test standards. The primary function of passive fire protection product is to achieve the declared fire resistance. Fire resistance of a construction product is expressed as a time interval (30 min, 60 min, 90 min, 120 min ...) in which certain properties of the tested product are preserved. In the given time intervals, it is necessary for the tested product to maintain the thermal insulation properties (I), integrity (E) and additional properties prescribed by the test standard related to the tested product.  The fire damper represents part of HVAC system installed on walls which are fire resistance barriers [2]. Additional properties related to fire-resistant service installations- fire dampers (hereinafter only fire dampers) are the leakage on the fire damper in the cold state and the leakage of fire damper (S) during the fire test. In order to determine the previous properties, a test installation for fire dampers was formed, which consists of: installed damper in the test wall, duct and pipeline system, system for measuring the volume flow, cooler and a fan. All the obtained results are graphically presented in the paper and serve for the purpose of determining the mentioned fire properties of dampers and for the purpose of fire resistance classification of construction products.
T2  - Procesna tehnika, sekcija Inženjerska praksa
T1  - Fire resistance tests for fire dampers
IS  - 1
DO  - 10.24094/ptc.022.34.1.30
ER  - 

@article{
author = "Kijanović, Aleksandar and Mirković-Marjanović, Milica and Ilić, Snežana",
year = "2022",
abstract = "Passive fire protection is civil engineering discipline which is very popular for research and development of new construction products and test standards. The primary function of passive fire protection product is to achieve the declared fire resistance. Fire resistance of a construction product is expressed as a time interval (30 min, 60 min, 90 min, 120 min ...) in which certain properties of the tested product are preserved. In the given time intervals, it is necessary for the tested product to maintain the thermal insulation properties (I), integrity (E) and additional properties prescribed by the test standard related to the tested product.  The fire damper represents part of HVAC system installed on walls which are fire resistance barriers [2]. Additional properties related to fire-resistant service installations- fire dampers (hereinafter only fire dampers) are the leakage on the fire damper in the cold state and the leakage of fire damper (S) during the fire test. In order to determine the previous properties, a test installation for fire dampers was formed, which consists of: installed damper in the test wall, duct and pipeline system, system for measuring the volume flow, cooler and a fan. All the obtained results are graphically presented in the paper and serve for the purpose of determining the mentioned fire properties of dampers and for the purpose of fire resistance classification of construction products.",
journal = "Procesna tehnika, sekcija Inženjerska praksa",
title = "Fire resistance tests for fire dampers",
number = "1",
doi = "10.24094/ptc.022.34.1.30"
}

Kijanović, A., Mirković-Marjanović, M.,& Ilić, S.. (2022). Fire resistance tests for fire dampers. in Procesna tehnika, sekcija Inženjerska praksa(1).
https://doi.org/10.24094/ptc.022.34.1.30

Kijanović A, Mirković-Marjanović M, Ilić S. Fire resistance tests for fire dampers. in Procesna tehnika, sekcija Inženjerska praksa. 2022;(1).
doi:10.24094/ptc.022.34.1.30 .

Kijanović, Aleksandar, Mirković-Marjanović, Milica, Ilić, Snežana, "Fire resistance tests for fire dampers" in Procesna tehnika, sekcija Inženjerska praksa, no. 1 (2022),
https://doi.org/10.24094/ptc.022.34.1.30 . .

TY  - CONF
AU  - Mirković-Marjanović, Milica
AU  - Ilić, Snežana
AU  - Kijanović, Aleksandar
AU  - Todorović, Goran
AU  - Gospavić, Radovan
PY  - 2022
UR  - http://rims.institutims.rs/handle/123456789/600
AB  - The growing expansion of construction and import of new, as well as existing materials from around the world, has led to a large number of tests materials and elements of constructions in the Republic of Serbia. Most of these materials and building constructions have test certificates obtained in foreign laboratories, which mostly refer to European standards. The currently valid Rulebook on mandatory attestation of elements of standard building structures for fire resistance and on working conditions that must be met by organizations of associated labour authorized to attest these products from 1990 requires testing of each product, or structural element, according to the domestic SRPS standards. The condition for accessing the European Union requires the harmonization of regulations related to the testing of construction products. Therefore, the IMS Institute, the Ministry of Interior - Sector for Emergency Situations and the Ministry of Construction of the Republic of Serbia have written a new draft Rulebook on Technical Requirements for construction products for which performance characteristics are important: reaction to fire, fire resistance and external fire performance. The plan is to publish the Rulebook, as valid, at the beginning of 2022, with a transitional period for implementation of two years. The paper presents a overview of the new Rulebook.
C3  - THE 8th INTERNATIONAL CONFERENCE "CIVIL ENGINEERING – SCIENCE AND PRACTICE", GNP 2022, Proceedings
T1  - Overview of the new rulebook on testing fire resistance, external fire performances and reaction to fire in the Republic of Serbia
UR  - https://hdl.handle.net/21.15107/rcub_rims_600
ER  - 

@conference{
author = "Mirković-Marjanović, Milica and Ilić, Snežana and Kijanović, Aleksandar and Todorović, Goran and Gospavić, Radovan",
year = "2022",
abstract = "The growing expansion of construction and import of new, as well as existing materials from around the world, has led to a large number of tests materials and elements of constructions in the Republic of Serbia. Most of these materials and building constructions have test certificates obtained in foreign laboratories, which mostly refer to European standards. The currently valid Rulebook on mandatory attestation of elements of standard building structures for fire resistance and on working conditions that must be met by organizations of associated labour authorized to attest these products from 1990 requires testing of each product, or structural element, according to the domestic SRPS standards. The condition for accessing the European Union requires the harmonization of regulations related to the testing of construction products. Therefore, the IMS Institute, the Ministry of Interior - Sector for Emergency Situations and the Ministry of Construction of the Republic of Serbia have written a new draft Rulebook on Technical Requirements for construction products for which performance characteristics are important: reaction to fire, fire resistance and external fire performance. The plan is to publish the Rulebook, as valid, at the beginning of 2022, with a transitional period for implementation of two years. The paper presents a overview of the new Rulebook.",
journal = "THE 8th INTERNATIONAL CONFERENCE "CIVIL ENGINEERING – SCIENCE AND PRACTICE", GNP 2022, Proceedings",
title = "Overview of the new rulebook on testing fire resistance, external fire performances and reaction to fire in the Republic of Serbia",
url = "https://hdl.handle.net/21.15107/rcub_rims_600"
}

Mirković-Marjanović, M., Ilić, S., Kijanović, A., Todorović, G.,& Gospavić, R.. (2022). Overview of the new rulebook on testing fire resistance, external fire performances and reaction to fire in the Republic of Serbia. in THE 8th INTERNATIONAL CONFERENCE "CIVIL ENGINEERING – SCIENCE AND PRACTICE", GNP 2022, Proceedings.
https://hdl.handle.net/21.15107/rcub_rims_600

Mirković-Marjanović M, Ilić S, Kijanović A, Todorović G, Gospavić R. Overview of the new rulebook on testing fire resistance, external fire performances and reaction to fire in the Republic of Serbia. in THE 8th INTERNATIONAL CONFERENCE "CIVIL ENGINEERING – SCIENCE AND PRACTICE", GNP 2022, Proceedings. 2022;.
https://hdl.handle.net/21.15107/rcub_rims_600 .

Mirković-Marjanović, Milica, Ilić, Snežana, Kijanović, Aleksandar, Todorović, Goran, Gospavić, Radovan, "Overview of the new rulebook on testing fire resistance, external fire performances and reaction to fire in the Republic of Serbia" in THE 8th INTERNATIONAL CONFERENCE "CIVIL ENGINEERING – SCIENCE AND PRACTICE", GNP 2022, Proceedings (2022),
https://hdl.handle.net/21.15107/rcub_rims_600 .

TY  - CONF
AU  - Božović, Nikola
AU  - Krstić, Marija
AU  - Todorović, Goran
AU  - Gospavić, Radovan
AU  - Mirković-Marjanović, Milica
AU  - Ilić, Snežana
AU  - Kijanović, Aleksandar
PY  - 2022
UR  - http://rims.institutims.rs/handle/123456789/601
AB  - The thermal conductivity of a material is the parameter that is most reliably determined experimentally. The problem of determining the thermal conductivity in the soil is greater because the soil is heterogeneous, so for the same soil this parameter may be different depending on the their ohysical characteristics. Therefore, it is necessary to adopt an appropiate model for describing the thermal conductivity of the soil for a particular location after the necessary tests are performed. This paper is based on experimental measurements of soil thermal conductivity as a function of moisture content in the area of the ,Nikola Tesla Airport construction site in Surčin and the adoption of one of the existing theoretical models that would satisfactorily describe changes in thermal consuctivity. Based on the obtained results of experimental reasearche, a two- parameter fitting of the measured values of thermal conductivity of the soil was performed in Cote-Konrad model, which proves to be reliable and the simplest to describe the thermal properties of loess in the area of Belgrade.
C3  - Peti simpozijum DGM (Društvo za geotehnika na Makedonija), Ohrid, Zbornik radova
T1  - Measurement and modeling of thermal conductivity of loess at the location of the Airport Nikola Tesla in Surcin
UR  - https://hdl.handle.net/21.15107/rcub_rims_601
ER  - 

@conference{
author = "Božović, Nikola and Krstić, Marija and Todorović, Goran and Gospavić, Radovan and Mirković-Marjanović, Milica and Ilić, Snežana and Kijanović, Aleksandar",
year = "2022",
abstract = "The thermal conductivity of a material is the parameter that is most reliably determined experimentally. The problem of determining the thermal conductivity in the soil is greater because the soil is heterogeneous, so for the same soil this parameter may be different depending on the their ohysical characteristics. Therefore, it is necessary to adopt an appropiate model for describing the thermal conductivity of the soil for a particular location after the necessary tests are performed. This paper is based on experimental measurements of soil thermal conductivity as a function of moisture content in the area of the ,Nikola Tesla Airport construction site in Surčin and the adoption of one of the existing theoretical models that would satisfactorily describe changes in thermal consuctivity. Based on the obtained results of experimental reasearche, a two- parameter fitting of the measured values of thermal conductivity of the soil was performed in Cote-Konrad model, which proves to be reliable and the simplest to describe the thermal properties of loess in the area of Belgrade.",
journal = "Peti simpozijum DGM (Društvo za geotehnika na Makedonija), Ohrid, Zbornik radova",
title = "Measurement and modeling of thermal conductivity of loess at the location of the Airport Nikola Tesla in Surcin",
url = "https://hdl.handle.net/21.15107/rcub_rims_601"
}

Božović, N., Krstić, M., Todorović, G., Gospavić, R., Mirković-Marjanović, M., Ilić, S.,& Kijanović, A.. (2022). Measurement and modeling of thermal conductivity of loess at the location of the Airport Nikola Tesla in Surcin. in Peti simpozijum DGM (Društvo za geotehnika na Makedonija), Ohrid, Zbornik radova.
https://hdl.handle.net/21.15107/rcub_rims_601

Božović N, Krstić M, Todorović G, Gospavić R, Mirković-Marjanović M, Ilić S, Kijanović A. Measurement and modeling of thermal conductivity of loess at the location of the Airport Nikola Tesla in Surcin. in Peti simpozijum DGM (Društvo za geotehnika na Makedonija), Ohrid, Zbornik radova. 2022;.
https://hdl.handle.net/21.15107/rcub_rims_601 .

Božović, Nikola, Krstić, Marija, Todorović, Goran, Gospavić, Radovan, Mirković-Marjanović, Milica, Ilić, Snežana, Kijanović, Aleksandar, "Measurement and modeling of thermal conductivity of loess at the location of the Airport Nikola Tesla in Surcin" in Peti simpozijum DGM (Društvo za geotehnika na Makedonija), Ohrid, Zbornik radova (2022),
https://hdl.handle.net/21.15107/rcub_rims_601 .

TY  - CONF
AU  - Ilić, Snežana
AU  - Laban, Mirjana
AU  - Džolev, Igor
PY  - 2022
UR  - http://rims.institutims.rs/handle/123456789/603
AB  - Fire-resistant doors are widely used as part of passive fire protection systems, preventing the spread of fire and smoke beyond the fire compartment. Fire resistance is usually determined through standard fire tests in accredited laboratories, such as the Laboratory for thermal technique and fire protection in Institute IMS, Serbia. Current regulations in Serbia allow testing of fire doors according to two standards: Serbian national SRPS U.J1.160 [1] and European SRPS EN 1634-1 [2].
In the past five years, 236 samples of different fire doors were tested. Most of them were single-leaf, steel doors. Although almost one third (31%) of all samples (tested on 15, 20, 30, 45, 60, 90, 120, 180, 240 and 380 minutes) provided fire resistance of 120 minutes, which should be sufficient for the safe evacuation of people, as well as the protection of expensive equipment (hospitals, rooms with electrical devices, etc.).Samples usually fail the test when sustained flaming occurs on the unexposed side in the upper corner of the specimen (lock side), or when the temperature measured by thermocouples exceeds the limitation given in the standard, usually at the top corner (lock side).In this paper, both currently valid standard testing procedures are analysed and compared.
C3  - 8 th INTERNATIONAL SCIENTIFIC CONFERENCE SAFETY ENGINEERING CONFERENCE WITH INTERNATIONAL PARTICIPATION ON FIRE AND EXPLOSION PROTECTION Budva, Montenegro, BOOK OF PROCEEDINGS
T1  - Fire resistance testing of fire doors
UR  - https://hdl.handle.net/21.15107/rcub_rims_603
ER  - 

@conference{
author = "Ilić, Snežana and Laban, Mirjana and Džolev, Igor",
year = "2022",
abstract = "Fire-resistant doors are widely used as part of passive fire protection systems, preventing the spread of fire and smoke beyond the fire compartment. Fire resistance is usually determined through standard fire tests in accredited laboratories, such as the Laboratory for thermal technique and fire protection in Institute IMS, Serbia. Current regulations in Serbia allow testing of fire doors according to two standards: Serbian national SRPS U.J1.160 [1] and European SRPS EN 1634-1 [2].
In the past five years, 236 samples of different fire doors were tested. Most of them were single-leaf, steel doors. Although almost one third (31%) of all samples (tested on 15, 20, 30, 45, 60, 90, 120, 180, 240 and 380 minutes) provided fire resistance of 120 minutes, which should be sufficient for the safe evacuation of people, as well as the protection of expensive equipment (hospitals, rooms with electrical devices, etc.).Samples usually fail the test when sustained flaming occurs on the unexposed side in the upper corner of the specimen (lock side), or when the temperature measured by thermocouples exceeds the limitation given in the standard, usually at the top corner (lock side).In this paper, both currently valid standard testing procedures are analysed and compared.",
journal = "8 th INTERNATIONAL SCIENTIFIC CONFERENCE SAFETY ENGINEERING CONFERENCE WITH INTERNATIONAL PARTICIPATION ON FIRE AND EXPLOSION PROTECTION Budva, Montenegro, BOOK OF PROCEEDINGS",
title = "Fire resistance testing of fire doors",
url = "https://hdl.handle.net/21.15107/rcub_rims_603"
}

Ilić, S., Laban, M.,& Džolev, I.. (2022). Fire resistance testing of fire doors. in 8 th INTERNATIONAL SCIENTIFIC CONFERENCE SAFETY ENGINEERING CONFERENCE WITH INTERNATIONAL PARTICIPATION ON FIRE AND EXPLOSION PROTECTION Budva, Montenegro, BOOK OF PROCEEDINGS.
https://hdl.handle.net/21.15107/rcub_rims_603

Ilić S, Laban M, Džolev I. Fire resistance testing of fire doors. in 8 th INTERNATIONAL SCIENTIFIC CONFERENCE SAFETY ENGINEERING CONFERENCE WITH INTERNATIONAL PARTICIPATION ON FIRE AND EXPLOSION PROTECTION Budva, Montenegro, BOOK OF PROCEEDINGS. 2022;.
https://hdl.handle.net/21.15107/rcub_rims_603 .

Ilić, Snežana, Laban, Mirjana, Džolev, Igor, "Fire resistance testing of fire doors" in 8 th INTERNATIONAL SCIENTIFIC CONFERENCE SAFETY ENGINEERING CONFERENCE WITH INTERNATIONAL PARTICIPATION ON FIRE AND EXPLOSION PROTECTION Budva, Montenegro, BOOK OF PROCEEDINGS (2022),
https://hdl.handle.net/21.15107/rcub_rims_603 .

TY  - GEN
AU  - Ivanišević, Dragiša
AU  - Kijanović, Aleksandar
AU  - Mirković-Marjanović, Milica
AU  - Ilić, Snežana
AU  - Janković, Ksenija
PY  - 2022
UR  - http://rims.institutims.rs/handle/123456789/554
AB  - Tehničko rešenje predstavlja poboljšanu konstrukciju zaštićene grejne ploče (hotguarded plate) za merenje toplotne provodljivosti termoizolacionih materijala
postavljanjem ispitnog uzorka iznad i ispod grejne ploče (standardna simetrična
ispitna konfiguracija). Merenje toplotne provodljivosti vrši se u skladu sa
standardom SRPS U.A2.020.
Ovim rešenjem toplotna provodljivost se proračunava na osnovu vrednosti
izmerenog toplotnog fluksa korišćenjem dva tanka toplotna fluksmetra na toploj
i hladnoj strani ispitivanih uzoraka. Prednost korišćenja fluksmetara na grejnoj i
rashladnoj ploči u odnosu na uobičajen metod za određivanje toplotne
provodljivosti (hot-guarded plate) je u periodu dostizanja stacionarnog stanja koji
je znatno kraći. Na taj način bi se ostvarila sva zahtevana merenja toplotne
provodljivsti termoizolacionih materijala usled povećane potražnje za ovakvom
vrstom ispitivanja u Republici Srbiji.
Kod metoda merenja sa toplotnim fluksmetrima, uobičajeno je da se koristi jedan
fluksmetar na zaštićenoj grejnoj ploči. Kod ovog tehničkog rešenja koriste se dva
toplotna fluksmetra na površini uzorka. Na taj način se precizno može utvrditi
srednja vrednost toplotnog fluksa kroz ispitivani uzorak tj. srednji toplotni fluks
kroz sam uzorak je tačnije određen. Fluksmetri za ovakvu vrstu merenja su
odabrani sa velikom mernom površinom da bi se dobile što merodavnije
vrednosti raspodele toplotnog fluksa po mernoj površi, pri čemu uobičajeno
korišćenje znatno manjih toplotnih fluksmetara.
Novi koncept grejne ploče ne odgovara uobičajenim grejnim pločama koje su
opisane u standardima. Specifičnost ovog dizajna ploče je u smanjenom
toplotnom prekidu – prostor između unutrašnje zaštićene (hot) i spoljašnje
zaštitne (guard) ploče koje zajedno čine predmet ovog tehničkog rešenja.
Veličinom toplotnog prekida od 1 mm popunjenog dvokomponentnim
termoizolacionim lepkom, određena je i minimalna dozvoljena debljina uzorka. 
Na taj način je omogućeno merenje tanjih termoizolacija, tj. povećan je merni
opseg samog uređaja pri ovakvom načinu izrade grejne ploče.
Dodatna prednost u pogledu konstrukcije toplotnog prekida je u formiranju
stepenika čija je osnovna svrha formiranje jednodelne konstrukcije koja se sastoji
od zaštićene (hot) i spoljašnje zaštitne (guard) ploče. Uobičajeno se ovakve ploče
izrađuju iz više segmenata dok je specifičnost ove konstrukcije da se sastoji iz
jednog dela.
Temperaturska razlika između dve ploče se kontroliše korišćenjem termoparova
u diferencijalnom spoju koji su raspoređeni po obimu kontakta dve ploče.
Merenjem naponskog signala za praćenje temperaturne razlike između pomenute
dve ploče mogu se proceniti lateralni gubici između zaštićene i zaštitne ploče i
izmereni naponski signal se može koristiti u svrhe upravljanja.
Grejači zaštićene i zaštitne ploče su ukopani u materijal grejne ploče i napravljeni
su korišćenjem žice za izradu termoparova K tipa. Grejači su vezani na standardni
priključak za termoparove tipa K, koji je fiksiran za grejnu ploču. Preko fiksiranih
priključaka ostvareno je napajanje grejača naponskim dvokanalnim nezavisnim
izvorom. Korišćene su rashladne ploče koje su hlađene korišćem automatzovanog
rashladnog kupatila sa propisanom površinskom fluktuacijom temperature
rashladne površi od 0,1°C.
Validacija grejne ploče je izvršena učešćem u međulaboratorijskom poređenju.
PB  - Institut IMS
T2  - Pregled naučnih i stručnih rezultata Instituta IMS u 2022. godini
T1  - Grejna ploča za merenje toplotne provodljivosti građevinskih materijala
UR  - https://hdl.handle.net/21.15107/rcub_rims_554
ER  - 

@misc{
author = "Ivanišević, Dragiša and Kijanović, Aleksandar and Mirković-Marjanović, Milica and Ilić, Snežana and Janković, Ksenija",
year = "2022",
abstract = "Tehničko rešenje predstavlja poboljšanu konstrukciju zaštićene grejne ploče (hotguarded plate) za merenje toplotne provodljivosti termoizolacionih materijala
postavljanjem ispitnog uzorka iznad i ispod grejne ploče (standardna simetrična
ispitna konfiguracija). Merenje toplotne provodljivosti vrši se u skladu sa
standardom SRPS U.A2.020.
Ovim rešenjem toplotna provodljivost se proračunava na osnovu vrednosti
izmerenog toplotnog fluksa korišćenjem dva tanka toplotna fluksmetra na toploj
i hladnoj strani ispitivanih uzoraka. Prednost korišćenja fluksmetara na grejnoj i
rashladnoj ploči u odnosu na uobičajen metod za određivanje toplotne
provodljivosti (hot-guarded plate) je u periodu dostizanja stacionarnog stanja koji
je znatno kraći. Na taj način bi se ostvarila sva zahtevana merenja toplotne
provodljivsti termoizolacionih materijala usled povećane potražnje za ovakvom
vrstom ispitivanja u Republici Srbiji.
Kod metoda merenja sa toplotnim fluksmetrima, uobičajeno je da se koristi jedan
fluksmetar na zaštićenoj grejnoj ploči. Kod ovog tehničkog rešenja koriste se dva
toplotna fluksmetra na površini uzorka. Na taj način se precizno može utvrditi
srednja vrednost toplotnog fluksa kroz ispitivani uzorak tj. srednji toplotni fluks
kroz sam uzorak je tačnije određen. Fluksmetri za ovakvu vrstu merenja su
odabrani sa velikom mernom površinom da bi se dobile što merodavnije
vrednosti raspodele toplotnog fluksa po mernoj površi, pri čemu uobičajeno
korišćenje znatno manjih toplotnih fluksmetara.
Novi koncept grejne ploče ne odgovara uobičajenim grejnim pločama koje su
opisane u standardima. Specifičnost ovog dizajna ploče je u smanjenom
toplotnom prekidu – prostor između unutrašnje zaštićene (hot) i spoljašnje
zaštitne (guard) ploče koje zajedno čine predmet ovog tehničkog rešenja.
Veličinom toplotnog prekida od 1 mm popunjenog dvokomponentnim
termoizolacionim lepkom, određena je i minimalna dozvoljena debljina uzorka. 
Na taj način je omogućeno merenje tanjih termoizolacija, tj. povećan je merni
opseg samog uređaja pri ovakvom načinu izrade grejne ploče.
Dodatna prednost u pogledu konstrukcije toplotnog prekida je u formiranju
stepenika čija je osnovna svrha formiranje jednodelne konstrukcije koja se sastoji
od zaštićene (hot) i spoljašnje zaštitne (guard) ploče. Uobičajeno se ovakve ploče
izrađuju iz više segmenata dok je specifičnost ove konstrukcije da se sastoji iz
jednog dela.
Temperaturska razlika između dve ploče se kontroliše korišćenjem termoparova
u diferencijalnom spoju koji su raspoređeni po obimu kontakta dve ploče.
Merenjem naponskog signala za praćenje temperaturne razlike između pomenute
dve ploče mogu se proceniti lateralni gubici između zaštićene i zaštitne ploče i
izmereni naponski signal se može koristiti u svrhe upravljanja.
Grejači zaštićene i zaštitne ploče su ukopani u materijal grejne ploče i napravljeni
su korišćenjem žice za izradu termoparova K tipa. Grejači su vezani na standardni
priključak za termoparove tipa K, koji je fiksiran za grejnu ploču. Preko fiksiranih
priključaka ostvareno je napajanje grejača naponskim dvokanalnim nezavisnim
izvorom. Korišćene su rashladne ploče koje su hlađene korišćem automatzovanog
rashladnog kupatila sa propisanom površinskom fluktuacijom temperature
rashladne površi od 0,1°C.
Validacija grejne ploče je izvršena učešćem u međulaboratorijskom poređenju.",
publisher = "Institut IMS",
journal = "Pregled naučnih i stručnih rezultata Instituta IMS u 2022. godini",
title = "Grejna ploča za merenje toplotne provodljivosti građevinskih materijala",
url = "https://hdl.handle.net/21.15107/rcub_rims_554"
}

Ivanišević, D., Kijanović, A., Mirković-Marjanović, M., Ilić, S.,& Janković, K.. (2022). Grejna ploča za merenje toplotne provodljivosti građevinskih materijala. in Pregled naučnih i stručnih rezultata Instituta IMS u 2022. godini
Institut IMS..
https://hdl.handle.net/21.15107/rcub_rims_554

Ivanišević D, Kijanović A, Mirković-Marjanović M, Ilić S, Janković K. Grejna ploča za merenje toplotne provodljivosti građevinskih materijala. in Pregled naučnih i stručnih rezultata Instituta IMS u 2022. godini. 2022;.
https://hdl.handle.net/21.15107/rcub_rims_554 .

Ivanišević, Dragiša, Kijanović, Aleksandar, Mirković-Marjanović, Milica, Ilić, Snežana, Janković, Ksenija, "Grejna ploča za merenje toplotne provodljivosti građevinskih materijala" in Pregled naučnih i stručnih rezultata Instituta IMS u 2022. godini (2022),
https://hdl.handle.net/21.15107/rcub_rims_554 .

TY  - JOUR
AU  - Mirković-Marjanović, Milica
AU  - Kijanović, Aleksandar
AU  - Ilić, Snežana
AU  - Janković, Ksenija
AU  - Zakić, Dimitrije
PY  - 2022
UR  - http://rims.institutims.rs/handle/123456789/444
AB  - The Guarded hot plate method (GHP) is a widely used technique to measure thermal conductivity of thermal insulation specimens in steady-state conditions. In this paper, an advance of GHP has been developed in the Laboratory for Thermal technique and fire protection in Institute IMS. The innovative GHP has been applied for measuring thermal conductivity using additional heat flux meters. The design of this GHP is similar to the design of the plate for GHP apparatus; however, it has different design: smaller width of thermal barrier, which is filled with insulation glue. Heaters inside hot and guard plates are built from wire for thermocouples, which is a unique type of heater. Geometry of heater has been optimized inside plates to achieve uniform temperature distribution along the specimen surface. Temperature uniformity of guarded hot plate and energy balance were experimentally determined. The verification and validation results of improved GHP have been shown. The test method was validated comparing test results of thermal conductivity with results of the round-robin test. Four national companies participated in the round-robin comparison on thermal conductivity measurement by guarded hot plate method. The measurement was performed on the same specimen of thermal insulation material (expanded polystyrene) according to SRPS EN 12667 at temperatures ranging between 10℃-40℃. The measured thermal conductivity of all participants in the round-robin test was input data for statistical processing according to SRPS ISO 5725-2 and ISO 13528. To evaluate the performance of the participants, the “z” score has been used. Measurements were conducted successively for all participants. Since 2020, the Accreditation Body of Serbia also approved this test method.
T2  - Thermal Science 2022 Volume 26, Issue 6 Part A, Pages: 4735-4747
T1  - Verification and validation of an advanced guardedhot plate for determination of thermal conductivity
EP  - 4747
SP  - 4735
VL  - 26
DO  - 10.2298/TSCI220311108M
ER  - 

@article{
author = "Mirković-Marjanović, Milica and Kijanović, Aleksandar and Ilić, Snežana and Janković, Ksenija and Zakić, Dimitrije",
year = "2022",
abstract = "The Guarded hot plate method (GHP) is a widely used technique to measure thermal conductivity of thermal insulation specimens in steady-state conditions. In this paper, an advance of GHP has been developed in the Laboratory for Thermal technique and fire protection in Institute IMS. The innovative GHP has been applied for measuring thermal conductivity using additional heat flux meters. The design of this GHP is similar to the design of the plate for GHP apparatus; however, it has different design: smaller width of thermal barrier, which is filled with insulation glue. Heaters inside hot and guard plates are built from wire for thermocouples, which is a unique type of heater. Geometry of heater has been optimized inside plates to achieve uniform temperature distribution along the specimen surface. Temperature uniformity of guarded hot plate and energy balance were experimentally determined. The verification and validation results of improved GHP have been shown. The test method was validated comparing test results of thermal conductivity with results of the round-robin test. Four national companies participated in the round-robin comparison on thermal conductivity measurement by guarded hot plate method. The measurement was performed on the same specimen of thermal insulation material (expanded polystyrene) according to SRPS EN 12667 at temperatures ranging between 10℃-40℃. The measured thermal conductivity of all participants in the round-robin test was input data for statistical processing according to SRPS ISO 5725-2 and ISO 13528. To evaluate the performance of the participants, the “z” score has been used. Measurements were conducted successively for all participants. Since 2020, the Accreditation Body of Serbia also approved this test method.",
journal = "Thermal Science 2022 Volume 26, Issue 6 Part A, Pages: 4735-4747",
title = "Verification and validation of an advanced guardedhot plate for determination of thermal conductivity",
pages = "4747-4735",
volume = "26",
doi = "10.2298/TSCI220311108M"
}

Mirković-Marjanović, M., Kijanović, A., Ilić, S., Janković, K.,& Zakić, D.. (2022). Verification and validation of an advanced guardedhot plate for determination of thermal conductivity. in Thermal Science 2022 Volume 26, Issue 6 Part A, Pages: 4735-4747, 26, 4735-4747.
https://doi.org/10.2298/TSCI220311108M

Mirković-Marjanović M, Kijanović A, Ilić S, Janković K, Zakić D. Verification and validation of an advanced guardedhot plate for determination of thermal conductivity. in Thermal Science 2022 Volume 26, Issue 6 Part A, Pages: 4735-4747. 2022;26:4735-4747.
doi:10.2298/TSCI220311108M .

Mirković-Marjanović, Milica, Kijanović, Aleksandar, Ilić, Snežana, Janković, Ksenija, Zakić, Dimitrije, "Verification and validation of an advanced guardedhot plate for determination of thermal conductivity" in Thermal Science 2022 Volume 26, Issue 6 Part A, Pages: 4735-4747, 26 (2022):4735-4747,
https://doi.org/10.2298/TSCI220311108M . .

TY  - CONF
AU  - Ilić, Snežana
AU  - Mirković-Marjanović, Milica
AU  - Kijanović, Aleksandar
AU  - Laban, Mirjana
PY  - 2022
UR  - http://rims.institutims.rs/handle/123456789/441
AB  - To reduce occurrence of fires in buildings as efficiently as possible, it is necessary to take into account active and passive fire protection measures during construction of building. This paper will show more about passive fire protection measures related to the selection of adequate material to be used during construction, which contributes to the localization of fire and prevents it from spreading to other rooms and facilities.
All products, which are planned by project, must have adequate certificates not to contribute to the development of fire, as well as to meet the class of fire resistance. In the Republic of Serbia, only the Laboratory for Thermal Engineering and Fire Protection, within the IMS Institute, deals with this type of testing and issuing reports.
This paper will present test methods for obtaining a fire reaction class. After the tests, according to the standard SRPS EN 13501-1, a Classification Report is issued in which the final fire reaction class is given for the tested product whose validity lasts for 5 years.
C3  - Proceedings of the 17th Conference with International participation risk and safety engineering, Kopaonik
T1  - Testing of building materials - reaction to fire
EP  - 119
SP  - 111
UR  - https://hdl.handle.net/21.15107/rcub_rims_441
ER  - 

@conference{
author = "Ilić, Snežana and Mirković-Marjanović, Milica and Kijanović, Aleksandar and Laban, Mirjana",
year = "2022",
abstract = "To reduce occurrence of fires in buildings as efficiently as possible, it is necessary to take into account active and passive fire protection measures during construction of building. This paper will show more about passive fire protection measures related to the selection of adequate material to be used during construction, which contributes to the localization of fire and prevents it from spreading to other rooms and facilities.
All products, which are planned by project, must have adequate certificates not to contribute to the development of fire, as well as to meet the class of fire resistance. In the Republic of Serbia, only the Laboratory for Thermal Engineering and Fire Protection, within the IMS Institute, deals with this type of testing and issuing reports.
This paper will present test methods for obtaining a fire reaction class. After the tests, according to the standard SRPS EN 13501-1, a Classification Report is issued in which the final fire reaction class is given for the tested product whose validity lasts for 5 years.",
journal = "Proceedings of the 17th Conference with International participation risk and safety engineering, Kopaonik",
title = "Testing of building materials - reaction to fire",
pages = "119-111",
url = "https://hdl.handle.net/21.15107/rcub_rims_441"
}

Ilić, S., Mirković-Marjanović, M., Kijanović, A.,& Laban, M.. (2022). Testing of building materials - reaction to fire. in Proceedings of the 17th Conference with International participation risk and safety engineering, Kopaonik, 111-119.
https://hdl.handle.net/21.15107/rcub_rims_441

Ilić S, Mirković-Marjanović M, Kijanović A, Laban M. Testing of building materials - reaction to fire. in Proceedings of the 17th Conference with International participation risk and safety engineering, Kopaonik. 2022;:111-119.
https://hdl.handle.net/21.15107/rcub_rims_441 .

Ilić, Snežana, Mirković-Marjanović, Milica, Kijanović, Aleksandar, Laban, Mirjana, "Testing of building materials - reaction to fire" in Proceedings of the 17th Conference with International participation risk and safety engineering, Kopaonik (2022):111-119,
https://hdl.handle.net/21.15107/rcub_rims_441 .

TY  - CONF
AU  - Ilić, Snežana
AU  - Malešev, Mirjana
AU  - Mirković-Marjanović, Milica
AU  - Kijanović, Aleksandar
PY  - 2022
UR  - http://rims.institutims.rs/handle/123456789/438
AB  - In this paper the experimental procedure for the determination of ventilation heat losses across building envelopes has been shown. The alternative name for this method is Blower Door Test or Fan Pressurization method. This text is a user manual for the determination of ventilation heat losses and parameters which is used to describe the air permeability of buildings. The experiment examination was performed at the office with old and after with new windows. The results were compared, and a significant contribution of new windows was shown.
PB  - University of Banja Luka Faculty of Architecture, Civil Engineering and Geodesy
C3  - Proceedings of International conference on contemporary theory and practice in construction XV, STEPGRAD 2022
T1  - Determination of ventilation heat losses through building envelope – a case study
EP  - 558
SP  - 552
UR  - https://hdl.handle.net/21.15107/rcub_rims_438
ER  - 

@conference{
author = "Ilić, Snežana and Malešev, Mirjana and Mirković-Marjanović, Milica and Kijanović, Aleksandar",
year = "2022",
abstract = "In this paper the experimental procedure for the determination of ventilation heat losses across building envelopes has been shown. The alternative name for this method is Blower Door Test or Fan Pressurization method. This text is a user manual for the determination of ventilation heat losses and parameters which is used to describe the air permeability of buildings. The experiment examination was performed at the office with old and after with new windows. The results were compared, and a significant contribution of new windows was shown.",
publisher = "University of Banja Luka Faculty of Architecture, Civil Engineering and Geodesy",
journal = "Proceedings of International conference on contemporary theory and practice in construction XV, STEPGRAD 2022",
title = "Determination of ventilation heat losses through building envelope – a case study",
pages = "558-552",
url = "https://hdl.handle.net/21.15107/rcub_rims_438"
}

Ilić, S., Malešev, M., Mirković-Marjanović, M.,& Kijanović, A.. (2022). Determination of ventilation heat losses through building envelope – a case study. in Proceedings of International conference on contemporary theory and practice in construction XV, STEPGRAD 2022
University of Banja Luka Faculty of Architecture, Civil Engineering and Geodesy., 552-558.
https://hdl.handle.net/21.15107/rcub_rims_438

Ilić S, Malešev M, Mirković-Marjanović M, Kijanović A. Determination of ventilation heat losses through building envelope – a case study. in Proceedings of International conference on contemporary theory and practice in construction XV, STEPGRAD 2022. 2022;:552-558.
https://hdl.handle.net/21.15107/rcub_rims_438 .

Ilić, Snežana, Malešev, Mirjana, Mirković-Marjanović, Milica, Kijanović, Aleksandar, "Determination of ventilation heat losses through building envelope – a case study" in Proceedings of International conference on contemporary theory and practice in construction XV, STEPGRAD 2022 (2022):552-558,
https://hdl.handle.net/21.15107/rcub_rims_438 .

TY  - CONF
AU  - Mirković-Marjanović, Milica
AU  - Ilić, Snežana
AU  - Kijanović, Aleksandar
AU  - Todorović, Goran
AU  - Gospavić, Radovan
PY  - 2022
UR  - http://rims.institutims.rs/handle/123456789/436
AB  - Testing the clay hollow-brick masonry non-load-bearing wall helps us to understand the behaviour of this type of wall during a fire. It is important to know the fire resistance of hollow brick walls so that we can prevent the fire from spreading to other rooms. In this paper, the experimental analysis of fire resistance of non-load-bearing wall with dimensions 3000 mm x 3000 mm thickness 200 mm were presented. The wall was made from clay hollow-brick masonry blocks with dimensions 500 mm x 200 mm x 249 mm (L x D x H) with mortar on both side of wall of thickness 15 mm. The wall was exposed to a standard fire test according to SRPS EN 1363-1:2014. The temperatures on the unexposed side of the wall were measured in thirteen positions with thermocouples (K – type) according to the national standard SRPS EN 1364-1: 2014, and at the junction between mortar and clay hollow-brick. Deflection of the wall in five places was measured also. Obtained results depending on the time of reaching the critical temperature during the fire test were presented.
C3  - Proceeding of the 8th International Conference "Civil engineering-science and practice", Kolašin
T1  - Experimental analysis of fire resistance of cly hollow-brick masonsry non-load bearing wall
UR  - https://hdl.handle.net/21.15107/rcub_rims_436
ER  - 

@conference{
author = "Mirković-Marjanović, Milica and Ilić, Snežana and Kijanović, Aleksandar and Todorović, Goran and Gospavić, Radovan",
year = "2022",
abstract = "Testing the clay hollow-brick masonry non-load-bearing wall helps us to understand the behaviour of this type of wall during a fire. It is important to know the fire resistance of hollow brick walls so that we can prevent the fire from spreading to other rooms. In this paper, the experimental analysis of fire resistance of non-load-bearing wall with dimensions 3000 mm x 3000 mm thickness 200 mm were presented. The wall was made from clay hollow-brick masonry blocks with dimensions 500 mm x 200 mm x 249 mm (L x D x H) with mortar on both side of wall of thickness 15 mm. The wall was exposed to a standard fire test according to SRPS EN 1363-1:2014. The temperatures on the unexposed side of the wall were measured in thirteen positions with thermocouples (K – type) according to the national standard SRPS EN 1364-1: 2014, and at the junction between mortar and clay hollow-brick. Deflection of the wall in five places was measured also. Obtained results depending on the time of reaching the critical temperature during the fire test were presented.",
journal = "Proceeding of the 8th International Conference "Civil engineering-science and practice", Kolašin",
title = "Experimental analysis of fire resistance of cly hollow-brick masonsry non-load bearing wall",
url = "https://hdl.handle.net/21.15107/rcub_rims_436"
}

Mirković-Marjanović, M., Ilić, S., Kijanović, A., Todorović, G.,& Gospavić, R.. (2022). Experimental analysis of fire resistance of cly hollow-brick masonsry non-load bearing wall. in Proceeding of the 8th International Conference "Civil engineering-science and practice", Kolašin.
https://hdl.handle.net/21.15107/rcub_rims_436

Mirković-Marjanović M, Ilić S, Kijanović A, Todorović G, Gospavić R. Experimental analysis of fire resistance of cly hollow-brick masonsry non-load bearing wall. in Proceeding of the 8th International Conference "Civil engineering-science and practice", Kolašin. 2022;.
https://hdl.handle.net/21.15107/rcub_rims_436 .

Mirković-Marjanović, Milica, Ilić, Snežana, Kijanović, Aleksandar, Todorović, Goran, Gospavić, Radovan, "Experimental analysis of fire resistance of cly hollow-brick masonsry non-load bearing wall" in Proceeding of the 8th International Conference "Civil engineering-science and practice", Kolašin (2022),
https://hdl.handle.net/21.15107/rcub_rims_436 .

TY  - CONF
AU  - Mirković-Marjanović, Milica
AU  - Kijanović, Aleksandar
AU  - Ilić, Snežana
AU  - Todorović, Goran
AU  - Gospavić, Radovan
PY  - 2022
UR  - http://rims.institutims.rs/handle/123456789/435
AB  - The unsteady heat conduction in composite planar structure, with arbitrary number of layers, using analytical approach based on Greeds Functions (GF) is analyzed. The analytical solution for spatial and temporal temperature distribution is evaluated in the general form and expressed in the terms of the convolution integrals. The GF are employed in the novel approach for calculation of Thermal Response Factors (TRF) with arbitrary shape functions for unsteady heat conduction in composite planar structure. The two pairs of TRF for spatial and temporal distribution of the temperature and the thermal flux are obtained. The whole analysis is performed in the time domain. A numerical scheme for efficient evaluation of convolution integral suitable for practical application in the case of the long term measurements with lower sampling rates is developed. The in-situ measurements of inside and outside surface temperatures and outside heat flux for a building wall under real dynamical environmental conditions during the period of then days are used for validation of the presented results and to demonstrate the possible practical application. Using developed approach and recorded surface temperatures as inputs the temporal and spatial distributions of the temperature and the thermal flux are obtained. These results are compared with experimental data and numerical simulations obtained by the Finite Volume Method (FVM).
C3  - Proceedings of the 19th International Symposium MASE, Ohrid, 2022
T1  - Experimental and numerical analysis of a walls made from aerated concrete blocks exposed to fire
EP  - 590
SP  - 583
UR  - https://hdl.handle.net/21.15107/rcub_rims_435
ER  - 

@conference{
author = "Mirković-Marjanović, Milica and Kijanović, Aleksandar and Ilić, Snežana and Todorović, Goran and Gospavić, Radovan",
year = "2022",
abstract = "The unsteady heat conduction in composite planar structure, with arbitrary number of layers, using analytical approach based on Greeds Functions (GF) is analyzed. The analytical solution for spatial and temporal temperature distribution is evaluated in the general form and expressed in the terms of the convolution integrals. The GF are employed in the novel approach for calculation of Thermal Response Factors (TRF) with arbitrary shape functions for unsteady heat conduction in composite planar structure. The two pairs of TRF for spatial and temporal distribution of the temperature and the thermal flux are obtained. The whole analysis is performed in the time domain. A numerical scheme for efficient evaluation of convolution integral suitable for practical application in the case of the long term measurements with lower sampling rates is developed. The in-situ measurements of inside and outside surface temperatures and outside heat flux for a building wall under real dynamical environmental conditions during the period of then days are used for validation of the presented results and to demonstrate the possible practical application. Using developed approach and recorded surface temperatures as inputs the temporal and spatial distributions of the temperature and the thermal flux are obtained. These results are compared with experimental data and numerical simulations obtained by the Finite Volume Method (FVM).",
journal = "Proceedings of the 19th International Symposium MASE, Ohrid, 2022",
title = "Experimental and numerical analysis of a walls made from aerated concrete blocks exposed to fire",
pages = "590-583",
url = "https://hdl.handle.net/21.15107/rcub_rims_435"
}

Mirković-Marjanović, M., Kijanović, A., Ilić, S., Todorović, G.,& Gospavić, R.. (2022). Experimental and numerical analysis of a walls made from aerated concrete blocks exposed to fire. in Proceedings of the 19th International Symposium MASE, Ohrid, 2022, 583-590.
https://hdl.handle.net/21.15107/rcub_rims_435

Mirković-Marjanović M, Kijanović A, Ilić S, Todorović G, Gospavić R. Experimental and numerical analysis of a walls made from aerated concrete blocks exposed to fire. in Proceedings of the 19th International Symposium MASE, Ohrid, 2022. 2022;:583-590.
https://hdl.handle.net/21.15107/rcub_rims_435 .

Mirković-Marjanović, Milica, Kijanović, Aleksandar, Ilić, Snežana, Todorović, Goran, Gospavić, Radovan, "Experimental and numerical analysis of a walls made from aerated concrete blocks exposed to fire" in Proceedings of the 19th International Symposium MASE, Ohrid, 2022 (2022):583-590,
https://hdl.handle.net/21.15107/rcub_rims_435 .

TY  - CONF
AU  - Mirković-Marjanović, Milica
AU  - Kijanović, Aleksandar
AU  - Ilić, Snežana
AU  - Todorović, Goran
AU  - Gospavić, Radovan
PY  - 2022
UR  - http://rims.institutims.rs/handle/123456789/376
AB  - In this paper a comparative analysis of thermal behavior of six partition walls with different
thicknesses were presented. The walls were dimensions 3000 mm x 3000 mm made from autoclaved
aerated concrete blocks with dimensions 625 mm x 200 mm and thicknesses 50 mm, 75 mm, 100 mm,
120 mm, 150 mm and 250 mm. All walls were exposed to standard fire test according the standard
SRPS EN 834-1, non- combustibility test according the standard SRPS EN 1182 and surface spread of
flame test according to SRPS U.J1.060. All walls were tested to fire resistance in vertical furnace with
a data acquisition system, according to standard fire test. Standard furnace for testing construction
consist of four two step burners in liquid fuel type of 296
kW manufactured by ECO FLAM. Two transmitters of differential pressure type 6321 manufactured
by TESTO (Germany), with range 100 Pa installed inside the furnace were used for pressure
measurement. Inside the furnace the temperature on six places with thermocouple type K were
measures. The measure ranges of thermocouple type K were -2700C to 13720C. The temperatures on
unexposed fire side were measured in nine places with thermocouple type T with measure ranges -
2700C to 4000C of according the national standard SRPS U.J1.090. The obtained temperature results
depending of the time of reaching the critical temperature were presented for each wall thicknesses.
The five identical cylindrical samples with high 50 mm and diameter 45 mm for non-combustibility
test has been used. All samples have been tested in standard furnace for non-combustibility test. The
average temperature in furnace and specimens were presented. Surface spread of flame testing is
carried out according to standard SRPS U.J1.060, if the coating material is based on organic or mixed
materials. The samples for these test are with dimensions 900 x 230 mm.
C3  - Proceedings of the 19th International Symposium MASE, Ohrid, 2022
T1  - The comparative analysis of thermal behaviour of a different thicknesses walls made from autoclaved aerated concrete blocks exposed to fire
EP  - 591
SP  - 597
UR  - https://hdl.handle.net/21.15107/rcub_rims_376
ER  - 

@conference{
author = "Mirković-Marjanović, Milica and Kijanović, Aleksandar and Ilić, Snežana and Todorović, Goran and Gospavić, Radovan",
year = "2022",
abstract = "In this paper a comparative analysis of thermal behavior of six partition walls with different
thicknesses were presented. The walls were dimensions 3000 mm x 3000 mm made from autoclaved
aerated concrete blocks with dimensions 625 mm x 200 mm and thicknesses 50 mm, 75 mm, 100 mm,
120 mm, 150 mm and 250 mm. All walls were exposed to standard fire test according the standard
SRPS EN 834-1, non- combustibility test according the standard SRPS EN 1182 and surface spread of
flame test according to SRPS U.J1.060. All walls were tested to fire resistance in vertical furnace with
a data acquisition system, according to standard fire test. Standard furnace for testing construction
consist of four two step burners in liquid fuel type of 296
kW manufactured by ECO FLAM. Two transmitters of differential pressure type 6321 manufactured
by TESTO (Germany), with range 100 Pa installed inside the furnace were used for pressure
measurement. Inside the furnace the temperature on six places with thermocouple type K were
measures. The measure ranges of thermocouple type K were -2700C to 13720C. The temperatures on
unexposed fire side were measured in nine places with thermocouple type T with measure ranges -
2700C to 4000C of according the national standard SRPS U.J1.090. The obtained temperature results
depending of the time of reaching the critical temperature were presented for each wall thicknesses.
The five identical cylindrical samples with high 50 mm and diameter 45 mm for non-combustibility
test has been used. All samples have been tested in standard furnace for non-combustibility test. The
average temperature in furnace and specimens were presented. Surface spread of flame testing is
carried out according to standard SRPS U.J1.060, if the coating material is based on organic or mixed
materials. The samples for these test are with dimensions 900 x 230 mm.",
journal = "Proceedings of the 19th International Symposium MASE, Ohrid, 2022",
title = "The comparative analysis of thermal behaviour of a different thicknesses walls made from autoclaved aerated concrete blocks exposed to fire",
pages = "591-597",
url = "https://hdl.handle.net/21.15107/rcub_rims_376"
}

Mirković-Marjanović, M., Kijanović, A., Ilić, S., Todorović, G.,& Gospavić, R.. (2022). The comparative analysis of thermal behaviour of a different thicknesses walls made from autoclaved aerated concrete blocks exposed to fire. in Proceedings of the 19th International Symposium MASE, Ohrid, 2022, 597-591.
https://hdl.handle.net/21.15107/rcub_rims_376

Mirković-Marjanović M, Kijanović A, Ilić S, Todorović G, Gospavić R. The comparative analysis of thermal behaviour of a different thicknesses walls made from autoclaved aerated concrete blocks exposed to fire. in Proceedings of the 19th International Symposium MASE, Ohrid, 2022. 2022;:597-591.
https://hdl.handle.net/21.15107/rcub_rims_376 .

Mirković-Marjanović, Milica, Kijanović, Aleksandar, Ilić, Snežana, Todorović, Goran, Gospavić, Radovan, "The comparative analysis of thermal behaviour of a different thicknesses walls made from autoclaved aerated concrete blocks exposed to fire" in Proceedings of the 19th International Symposium MASE, Ohrid, 2022 (2022):597-591,
https://hdl.handle.net/21.15107/rcub_rims_376 .

TY  - CONF
AU  - Laban, Mirjana
AU  - Ilić, Snežana
AU  - Džolev, Igor
AU  - Draganić, Suzana
PY  - 2022
UR  - http://rims.institutims.rs/handle/123456789/439
AB  - Innovative construction systems, increasing use of combustible material in facades, less and less space between buildings, increased energy requirements; the transformation of facades in response to these changes requires the involvement of fire safety experts. nts at Grenfell Tower,
London and The Address in Dubai have demonstrated, use of combustible façade elements and lack of-quick time, primarily through the façade. We need to learn from these disasters. Other
incidents prove that the use of nonsuppression.
In the past years EU experts are working on development of common method for assessment of the fire performance of façade systems. The classification system should be transparent and should fit within the framework of existing national regulations. The common assessment method should be applicable to the wide range of façades systems available in the market including glazed façades, green façades and other emerging technologies.
There is a progress in developing legislation on façade fire safety in non-EU countries, due to
emerging fire safety problems and harmonization of regulation with EU. Fire safety of facades in
Serbia is defined through several rulebooks and standards, which significantly improved requirements.
This paper presents the comparative analysis of legislation on facade fire safety in Serbia and other European countries.
C3  - Proceedings of the 19th International Symposium MASE, Ohrid, 2022
T1  - European and national assessment procedure for the fire performance of facades
EP  - 582
SP  - 577
UR  - https://hdl.handle.net/21.15107/rcub_rims_439
ER  - 

@conference{
author = "Laban, Mirjana and Ilić, Snežana and Džolev, Igor and Draganić, Suzana",
year = "2022",
abstract = "Innovative construction systems, increasing use of combustible material in facades, less and less space between buildings, increased energy requirements; the transformation of facades in response to these changes requires the involvement of fire safety experts. nts at Grenfell Tower,
London and The Address in Dubai have demonstrated, use of combustible façade elements and lack of-quick time, primarily through the façade. We need to learn from these disasters. Other
incidents prove that the use of nonsuppression.
In the past years EU experts are working on development of common method for assessment of the fire performance of façade systems. The classification system should be transparent and should fit within the framework of existing national regulations. The common assessment method should be applicable to the wide range of façades systems available in the market including glazed façades, green façades and other emerging technologies.
There is a progress in developing legislation on façade fire safety in non-EU countries, due to
emerging fire safety problems and harmonization of regulation with EU. Fire safety of facades in
Serbia is defined through several rulebooks and standards, which significantly improved requirements.
This paper presents the comparative analysis of legislation on facade fire safety in Serbia and other European countries.",
journal = "Proceedings of the 19th International Symposium MASE, Ohrid, 2022",
title = "European and national assessment procedure for the fire performance of facades",
pages = "582-577",
url = "https://hdl.handle.net/21.15107/rcub_rims_439"
}

Laban, M., Ilić, S., Džolev, I.,& Draganić, S.. (2022). European and national assessment procedure for the fire performance of facades. in Proceedings of the 19th International Symposium MASE, Ohrid, 2022, 577-582.
https://hdl.handle.net/21.15107/rcub_rims_439

Laban M, Ilić S, Džolev I, Draganić S. European and national assessment procedure for the fire performance of facades. in Proceedings of the 19th International Symposium MASE, Ohrid, 2022. 2022;:577-582.
https://hdl.handle.net/21.15107/rcub_rims_439 .

Laban, Mirjana, Ilić, Snežana, Džolev, Igor, Draganić, Suzana, "European and national assessment procedure for the fire performance of facades" in Proceedings of the 19th International Symposium MASE, Ohrid, 2022 (2022):577-582,
https://hdl.handle.net/21.15107/rcub_rims_439 .

TY  - CONF
AU  - Ilić, Snežana
AU  - Popović, Ljiljana
AU  - Ćosić, Đorđe
PY  - 2021
UR  - http://rims.institutims.rs/handle/123456789/442
AB  - Prilikom zaštite zgrada od požara neophodno je podeliti objekte na požarne sektore.
Kako ne bi došlo do prenosa vatre iz jednog požarnog sektora u drugi, potrebno je ugraditi
požarnootporna vrata. Sva ugrađena požarnootporna vrata moraju da poseduju dokaz o
otpornosti prema požaru, čija se vrednost dobija ispitivanjem u akreditovanoj laboratoriji.
Ispitivanje može da se izvrši prema dva standarda: SRPS U.J1.160 iz 1988. godine, kao i SRPS
EN 1634-1 iz 2018. godine.
U radu je predstavljena komparativna analiza između dva standarda u kojima su dati uslovi u
peći, način ugradnje uzorka, oprema koja se koristi za ispitivanje, kao i vrednost za otpornost
prema požaru. Standard SRPS EN 1634-1 mnogo detaljnije opisuje način ugradnje, postavljane
termoparova, proces ispitivanja, kao i vrednost za otpornost prema požaru u odnosu kako je to
dato u SRPS U.J1.160.
PB  - Departman za građevinarstvo i geodeziju, Fakultet tehničkih nauka, Novi Sad
C3  - Zbornik radova- 15. međunarodna naučna konferencija „Planiranje projektovanje, građenje i obnova graditeljstva iNDiS 2021“, Novi Sad
T1  - Komparativna analiza ispitivanja požarnootpornih vrata prema srpskim standardima
EP  - 1027
SP  - 1020
UR  - https://hdl.handle.net/21.15107/rcub_rims_442
ER  - 

@conference{
author = "Ilić, Snežana and Popović, Ljiljana and Ćosić, Đorđe",
year = "2021",
abstract = "Prilikom zaštite zgrada od požara neophodno je podeliti objekte na požarne sektore.
Kako ne bi došlo do prenosa vatre iz jednog požarnog sektora u drugi, potrebno je ugraditi
požarnootporna vrata. Sva ugrađena požarnootporna vrata moraju da poseduju dokaz o
otpornosti prema požaru, čija se vrednost dobija ispitivanjem u akreditovanoj laboratoriji.
Ispitivanje može da se izvrši prema dva standarda: SRPS U.J1.160 iz 1988. godine, kao i SRPS
EN 1634-1 iz 2018. godine.
U radu je predstavljena komparativna analiza između dva standarda u kojima su dati uslovi u
peći, način ugradnje uzorka, oprema koja se koristi za ispitivanje, kao i vrednost za otpornost
prema požaru. Standard SRPS EN 1634-1 mnogo detaljnije opisuje način ugradnje, postavljane
termoparova, proces ispitivanja, kao i vrednost za otpornost prema požaru u odnosu kako je to
dato u SRPS U.J1.160.",
publisher = "Departman za građevinarstvo i geodeziju, Fakultet tehničkih nauka, Novi Sad",
journal = "Zbornik radova- 15. međunarodna naučna konferencija „Planiranje projektovanje, građenje i obnova graditeljstva iNDiS 2021“, Novi Sad",
title = "Komparativna analiza ispitivanja požarnootpornih vrata prema srpskim standardima",
pages = "1027-1020",
url = "https://hdl.handle.net/21.15107/rcub_rims_442"
}

Ilić, S., Popović, L.,& Ćosić, Đ.. (2021). Komparativna analiza ispitivanja požarnootpornih vrata prema srpskim standardima. in Zbornik radova- 15. međunarodna naučna konferencija „Planiranje projektovanje, građenje i obnova graditeljstva iNDiS 2021“, Novi Sad
Departman za građevinarstvo i geodeziju, Fakultet tehničkih nauka, Novi Sad., 1020-1027.
https://hdl.handle.net/21.15107/rcub_rims_442

Ilić S, Popović L, Ćosić Đ. Komparativna analiza ispitivanja požarnootpornih vrata prema srpskim standardima. in Zbornik radova- 15. međunarodna naučna konferencija „Planiranje projektovanje, građenje i obnova graditeljstva iNDiS 2021“, Novi Sad. 2021;:1020-1027.
https://hdl.handle.net/21.15107/rcub_rims_442 .

Ilić, Snežana, Popović, Ljiljana, Ćosić, Đorđe, "Komparativna analiza ispitivanja požarnootpornih vrata prema srpskim standardima" in Zbornik radova- 15. međunarodna naučna konferencija „Planiranje projektovanje, građenje i obnova graditeljstva iNDiS 2021“, Novi Sad (2021):1020-1027,
https://hdl.handle.net/21.15107/rcub_rims_442 .

TY  - CONF
AU  - Ilić, Snežana
AU  - Kijanović, Aleksandar
AU  - Laban, Mirjana
PY  - 2021
UR  - http://rims.institutims.rs/handle/123456789/437
AB  - The low level of energy efficiency in buildings results in increased energy
consumption for heating and cooling and high carbon dioxide emissions. Insufficient
thermal protection of the exterior of a building contributes to a high value of thermal
transmittance of external walls and facade carpentry.
Regulations and standards in the field of energy efficiency in Serbia are going to be
harmonized with European documents, which is an integral part of the EU accession
process. Before placing construction products on the market, it is necessary to examine
product performances of products so that the thermal transmittance of facade carpentry
can be tested according two valid Serbian standards: SRPS U.J5. 060 from 1984 and
SRPS EN ISO 12567-1, which were adopted in 2012. These types of testing can only be
performed in accredited laboratories.
The paper presents a comparative analysis of those two standards for testing thermal
transmittance of external carpentry, the testing method, measuring equipment, the
obtaining of results that prove the performance of the product.
PB  - Regional Association for Security and Crisis Management-RASEC S4 GLOSEC Global Security
C3  - Proceedings of the “Safety for the future 2021 security and crisis management -theory and practice”, Belgrade
T1  - Comparative analysis of current standards for testing thermal protection of facade carpentry
EP  - 223
SP  - 215
UR  - https://hdl.handle.net/21.15107/rcub_rims_437
ER  - 

@conference{
author = "Ilić, Snežana and Kijanović, Aleksandar and Laban, Mirjana",
year = "2021",
abstract = "The low level of energy efficiency in buildings results in increased energy
consumption for heating and cooling and high carbon dioxide emissions. Insufficient
thermal protection of the exterior of a building contributes to a high value of thermal
transmittance of external walls and facade carpentry.
Regulations and standards in the field of energy efficiency in Serbia are going to be
harmonized with European documents, which is an integral part of the EU accession
process. Before placing construction products on the market, it is necessary to examine
product performances of products so that the thermal transmittance of facade carpentry
can be tested according two valid Serbian standards: SRPS U.J5. 060 from 1984 and
SRPS EN ISO 12567-1, which were adopted in 2012. These types of testing can only be
performed in accredited laboratories.
The paper presents a comparative analysis of those two standards for testing thermal
transmittance of external carpentry, the testing method, measuring equipment, the
obtaining of results that prove the performance of the product.",
publisher = "Regional Association for Security and Crisis Management-RASEC S4 GLOSEC Global Security",
journal = "Proceedings of the “Safety for the future 2021 security and crisis management -theory and practice”, Belgrade",
title = "Comparative analysis of current standards for testing thermal protection of facade carpentry",
pages = "223-215",
url = "https://hdl.handle.net/21.15107/rcub_rims_437"
}

Ilić, S., Kijanović, A.,& Laban, M.. (2021). Comparative analysis of current standards for testing thermal protection of facade carpentry. in Proceedings of the “Safety for the future 2021 security and crisis management -theory and practice”, Belgrade
Regional Association for Security and Crisis Management-RASEC S4 GLOSEC Global Security., 215-223.
https://hdl.handle.net/21.15107/rcub_rims_437

Ilić S, Kijanović A, Laban M. Comparative analysis of current standards for testing thermal protection of facade carpentry. in Proceedings of the “Safety for the future 2021 security and crisis management -theory and practice”, Belgrade. 2021;:215-223.
https://hdl.handle.net/21.15107/rcub_rims_437 .

Ilić, Snežana, Kijanović, Aleksandar, Laban, Mirjana, "Comparative analysis of current standards for testing thermal protection of facade carpentry" in Proceedings of the “Safety for the future 2021 security and crisis management -theory and practice”, Belgrade (2021):215-223,
https://hdl.handle.net/21.15107/rcub_rims_437 .

TY  - CONF
AU  - Ilić, Snežana
AU  - Radonjanin, Vlastimir
AU  - Laban, Mirjana
AU  - Bukvić, Olivera
PY  - 2021
UR  - http://rims.institutims.rs/handle/123456789/440
AB  - Critical infrastructure can be demaged, destroyed or disrupted by deliberate acts of natural disasters,negligence, terrorism, sccidents or computer hacking, criminal activity and malicious behaviour. When it comes to the protection of critical infrastructure, one of the most important branches which requires protection is the health system.
In the Republic of Serbia, there are no specific technical rules that deal with the fire protection for construction of health facilities. The Rulebook on the protection of residential, business and public buildings from fire partly mentions hospital facilities. Due to the lack of domestic laes designers must rely on foreign laws and regulations.
The paper presents active and passive fire protection that needs to be implemented when designing health facilities and an example of laws used in other countries relating to the fire protection of hospitals.
In addition to active and passive protection of medical facilities buildings it is also necessary to continuously educate both staff and patients to prevent panic attacks and mistakes that may occur due to an inadequate response.
C3  - Proceedings of the the 17th International Conference on fire and explosion protection and the 7th International Scientific Conference on safety engineering – fire, environment, work environment, integrated risks, Kladovo
T1  - Fire protection of health facilities
UR  - https://hdl.handle.net/21.15107/rcub_rims_440
ER  - 

@conference{
author = "Ilić, Snežana and Radonjanin, Vlastimir and Laban, Mirjana and Bukvić, Olivera",
year = "2021",
abstract = "Critical infrastructure can be demaged, destroyed or disrupted by deliberate acts of natural disasters,negligence, terrorism, sccidents or computer hacking, criminal activity and malicious behaviour. When it comes to the protection of critical infrastructure, one of the most important branches which requires protection is the health system.
In the Republic of Serbia, there are no specific technical rules that deal with the fire protection for construction of health facilities. The Rulebook on the protection of residential, business and public buildings from fire partly mentions hospital facilities. Due to the lack of domestic laes designers must rely on foreign laws and regulations.
The paper presents active and passive fire protection that needs to be implemented when designing health facilities and an example of laws used in other countries relating to the fire protection of hospitals.
In addition to active and passive protection of medical facilities buildings it is also necessary to continuously educate both staff and patients to prevent panic attacks and mistakes that may occur due to an inadequate response.",
journal = "Proceedings of the the 17th International Conference on fire and explosion protection and the 7th International Scientific Conference on safety engineering – fire, environment, work environment, integrated risks, Kladovo",
title = "Fire protection of health facilities",
url = "https://hdl.handle.net/21.15107/rcub_rims_440"
}

Ilić, S., Radonjanin, V., Laban, M.,& Bukvić, O.. (2021). Fire protection of health facilities. in Proceedings of the the 17th International Conference on fire and explosion protection and the 7th International Scientific Conference on safety engineering – fire, environment, work environment, integrated risks, Kladovo.
https://hdl.handle.net/21.15107/rcub_rims_440

Ilić S, Radonjanin V, Laban M, Bukvić O. Fire protection of health facilities. in Proceedings of the the 17th International Conference on fire and explosion protection and the 7th International Scientific Conference on safety engineering – fire, environment, work environment, integrated risks, Kladovo. 2021;.
https://hdl.handle.net/21.15107/rcub_rims_440 .

Ilić, Snežana, Radonjanin, Vlastimir, Laban, Mirjana, Bukvić, Olivera, "Fire protection of health facilities" in Proceedings of the the 17th International Conference on fire and explosion protection and the 7th International Scientific Conference on safety engineering – fire, environment, work environment, integrated risks, Kladovo (2021),
https://hdl.handle.net/21.15107/rcub_rims_440 .