COST action CA16101 “MULTI-modal Imaging of FOREnsic SciEnce Evidence (MULTIFORESEE)”

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COST action CA16101 “MULTI-modal Imaging of FOREnsic SciEnce Evidence (MULTIFORESEE)”

Authors

Publications

Profiling and imaging of forensic evidence – A pan-European forensic round robin study part 1: Document forgery

Fischer, Thomas; Marchetti-Deschmann, Martina; Assis, Ana Cristina; Levin Elad, Michal; Algarra, Manuel; Barac, Marko; Bogdanović Radović, Iva; Cicconi, Flavio; Claes, Britt; Frascione, Nunzianda; George, Sony; Guedes, Alexandra; Heaton, Cameron; Heeren, Ron; Lazić, Violeta; Lerma, José Luis; Martinez de Yuso Garcia, Maria del Valle; Nosko, Martin; O’Hara, John; Oshina, Ilze; Palucci, Antonio; Pawlaczyk, Aleksandra; Zelená Pospíšková, Kristýna; de Puit, Marcel; Radotić, Ksenija; Rēpele, Māra; Ristova, Mimoza; Romolo, Francesco Saverio; Šafařík, Ivo; Siketić, Zdravko; Spigulis, Janis; Szynkowska-Jozwik, Malgorzata Iwona; Tsiatsiuyeu, Andrei; Vella, Joanna; Dawson, Lorna; Rödiger, Stefan; Francese, Simona

(Elsevier, 2022)

TY  - JOUR
AU  - Fischer, Thomas
AU  - Marchetti-Deschmann, Martina
AU  - Assis, Ana Cristina
AU  - Levin Elad, Michal
AU  - Algarra, Manuel
AU  - Barac, Marko
AU  - Bogdanović Radović, Iva
AU  - Cicconi, Flavio
AU  - Claes, Britt
AU  - Frascione, Nunzianda
AU  - George, Sony
AU  - Guedes, Alexandra
AU  - Heaton, Cameron
AU  - Heeren, Ron
AU  - Lazić, Violeta
AU  - Lerma, José Luis
AU  - Martinez de Yuso Garcia, Maria del Valle
AU  - Nosko, Martin
AU  - O’Hara, John
AU  - Oshina, Ilze
AU  - Palucci, Antonio
AU  - Pawlaczyk, Aleksandra
AU  - Zelená Pospíšková, Kristýna
AU  - de Puit, Marcel
AU  - Radotić, Ksenija
AU  - Rēpele, Māra
AU  - Ristova, Mimoza
AU  - Romolo, Francesco Saverio
AU  - Šafařík, Ivo
AU  - Siketić, Zdravko
AU  - Spigulis, Janis
AU  - Szynkowska-Jozwik, Malgorzata Iwona
AU  - Tsiatsiuyeu, Andrei
AU  - Vella, Joanna
AU  - Dawson, Lorna
AU  - Rödiger, Stefan
AU  - Francese, Simona
PY  - 2022
UR  - http://rimsi.imsi.bg.ac.rs/handle/123456789/1562
AB  - The forensic scenario, on which the round robin study was based, simulated a suspected intentional manipulation
of a real estate rental agreement consisting of a total of three pages. The aims of this study were to (i) establish
the amount and reliability of information extractable from a single type of evidence and to (ii) provide suggestions
on the most suitable combination of compatible techniques for a multi-modal imaging approach to
forgery detection. To address these aims, seventeen laboratories from sixteen countries were invited to answer
the following tasks questions: (i) which printing technique was used? (ii) were the three pages printed with the
same printer? (iii) were the three pages made from the same paper? (iv) were the three pages originally stapled?
(v) were the headings and signatures written with the same ink? and (vi) were headings and signatures of the
same age on all pages? The methods used were classified into the following categories: Optical spectroscopy,
including multispectral imaging, smartphone mapping, UV-luminescence and LIBS; Infrared spectroscopy,
including Raman and FTIR (micro-)spectroscopy; X-ray spectroscopy, including SEM-EDX, PIXE and XPS; Mass
spectrometry, including ICPMS, SIMS, MALDI and LDIMS; Electrostatic imaging, as well as non-imaging
methods, such as non-multimodal visual inspection, (micro-)spectroscopy, physical testing and thin layer
chromatography. The performance of the techniques was evaluated as the proportion of discriminated sample
pairs to all possible sample pairs. For the undiscriminated sample pairs, a distinction was made between undecidability
and false positive claims. It was found that none of the methods used were able to solve all tasks
completely and/or correctly and that certain methods were a priori judged unsuitable by the laboratories for
some tasks. Correct results were generally achieved for the discrimination of printer toners, whereas incorrect
results in the discrimination of inks. For the discrimination of paper, solid state analytical methods proved to be
superior to mass spectrometric methods. None of the participating laboratories deemed addressing ink age
feasible. It was concluded that correct forensic statements can only be achieved by the complementary application
of different methods and that the classical approach of round robin studies to send standardised subsamples
to the participants is not feasible for a true multimodal approach if the techniques are not available at
one location.
PB  - Elsevier
T2  - Science & Justice
T1  - Profiling and imaging of forensic evidence – A pan-European forensic round robin study part 1: Document forgery
EP  - 447
IS  - 4
SP  - 433
VL  - 62
DO  - 10.1016/j.scijus.2022.06.001
ER  - 
@article{
author = "Fischer, Thomas and Marchetti-Deschmann, Martina and Assis, Ana Cristina and Levin Elad, Michal and Algarra, Manuel and Barac, Marko and Bogdanović Radović, Iva and Cicconi, Flavio and Claes, Britt and Frascione, Nunzianda and George, Sony and Guedes, Alexandra and Heaton, Cameron and Heeren, Ron and Lazić, Violeta and Lerma, José Luis and Martinez de Yuso Garcia, Maria del Valle and Nosko, Martin and O’Hara, John and Oshina, Ilze and Palucci, Antonio and Pawlaczyk, Aleksandra and Zelená Pospíšková, Kristýna and de Puit, Marcel and Radotić, Ksenija and Rēpele, Māra and Ristova, Mimoza and Romolo, Francesco Saverio and Šafařík, Ivo and Siketić, Zdravko and Spigulis, Janis and Szynkowska-Jozwik, Malgorzata Iwona and Tsiatsiuyeu, Andrei and Vella, Joanna and Dawson, Lorna and Rödiger, Stefan and Francese, Simona",
year = "2022",
abstract = "The forensic scenario, on which the round robin study was based, simulated a suspected intentional manipulation
of a real estate rental agreement consisting of a total of three pages. The aims of this study were to (i) establish
the amount and reliability of information extractable from a single type of evidence and to (ii) provide suggestions
on the most suitable combination of compatible techniques for a multi-modal imaging approach to
forgery detection. To address these aims, seventeen laboratories from sixteen countries were invited to answer
the following tasks questions: (i) which printing technique was used? (ii) were the three pages printed with the
same printer? (iii) were the three pages made from the same paper? (iv) were the three pages originally stapled?
(v) were the headings and signatures written with the same ink? and (vi) were headings and signatures of the
same age on all pages? The methods used were classified into the following categories: Optical spectroscopy,
including multispectral imaging, smartphone mapping, UV-luminescence and LIBS; Infrared spectroscopy,
including Raman and FTIR (micro-)spectroscopy; X-ray spectroscopy, including SEM-EDX, PIXE and XPS; Mass
spectrometry, including ICPMS, SIMS, MALDI and LDIMS; Electrostatic imaging, as well as non-imaging
methods, such as non-multimodal visual inspection, (micro-)spectroscopy, physical testing and thin layer
chromatography. The performance of the techniques was evaluated as the proportion of discriminated sample
pairs to all possible sample pairs. For the undiscriminated sample pairs, a distinction was made between undecidability
and false positive claims. It was found that none of the methods used were able to solve all tasks
completely and/or correctly and that certain methods were a priori judged unsuitable by the laboratories for
some tasks. Correct results were generally achieved for the discrimination of printer toners, whereas incorrect
results in the discrimination of inks. For the discrimination of paper, solid state analytical methods proved to be
superior to mass spectrometric methods. None of the participating laboratories deemed addressing ink age
feasible. It was concluded that correct forensic statements can only be achieved by the complementary application
of different methods and that the classical approach of round robin studies to send standardised subsamples
to the participants is not feasible for a true multimodal approach if the techniques are not available at
one location.",
publisher = "Elsevier",
journal = "Science & Justice",
title = "Profiling and imaging of forensic evidence – A pan-European forensic round robin study part 1: Document forgery",
pages = "447-433",
number = "4",
volume = "62",
doi = "10.1016/j.scijus.2022.06.001"
}
Fischer, T., Marchetti-Deschmann, M., Assis, A. C., Levin Elad, M., Algarra, M., Barac, M., Bogdanović Radović, I., Cicconi, F., Claes, B., Frascione, N., George, S., Guedes, A., Heaton, C., Heeren, R., Lazić, V., Lerma, J. L., Martinez de Yuso Garcia, M. d. V., Nosko, M., O’Hara, J., Oshina, I., Palucci, A., Pawlaczyk, A., Zelená Pospíšková, K., de Puit, M., Radotić, K., Rēpele, M., Ristova, M., Romolo, F. S., Šafařík, I., Siketić, Z., Spigulis, J., Szynkowska-Jozwik, M. I., Tsiatsiuyeu, A., Vella, J., Dawson, L., Rödiger, S.,& Francese, S.. (2022). Profiling and imaging of forensic evidence – A pan-European forensic round robin study part 1: Document forgery. in Science & Justice
Elsevier., 62(4), 433-447.
https://doi.org/10.1016/j.scijus.2022.06.001
Fischer T, Marchetti-Deschmann M, Assis AC, Levin Elad M, Algarra M, Barac M, Bogdanović Radović I, Cicconi F, Claes B, Frascione N, George S, Guedes A, Heaton C, Heeren R, Lazić V, Lerma JL, Martinez de Yuso Garcia MDV, Nosko M, O’Hara J, Oshina I, Palucci A, Pawlaczyk A, Zelená Pospíšková K, de Puit M, Radotić K, Rēpele M, Ristova M, Romolo FS, Šafařík I, Siketić Z, Spigulis J, Szynkowska-Jozwik MI, Tsiatsiuyeu A, Vella J, Dawson L, Rödiger S, Francese S. Profiling and imaging of forensic evidence – A pan-European forensic round robin study part 1: Document forgery. in Science & Justice. 2022;62(4):433-447.
doi:10.1016/j.scijus.2022.06.001 .
Fischer, Thomas, Marchetti-Deschmann, Martina, Assis, Ana Cristina, Levin Elad, Michal, Algarra, Manuel, Barac, Marko, Bogdanović Radović, Iva, Cicconi, Flavio, Claes, Britt, Frascione, Nunzianda, George, Sony, Guedes, Alexandra, Heaton, Cameron, Heeren, Ron, Lazić, Violeta, Lerma, José Luis, Martinez de Yuso Garcia, Maria del Valle, Nosko, Martin, O’Hara, John, Oshina, Ilze, Palucci, Antonio, Pawlaczyk, Aleksandra, Zelená Pospíšková, Kristýna, de Puit, Marcel, Radotić, Ksenija, Rēpele, Māra, Ristova, Mimoza, Romolo, Francesco Saverio, Šafařík, Ivo, Siketić, Zdravko, Spigulis, Janis, Szynkowska-Jozwik, Malgorzata Iwona, Tsiatsiuyeu, Andrei, Vella, Joanna, Dawson, Lorna, Rödiger, Stefan, Francese, Simona, "Profiling and imaging of forensic evidence – A pan-European forensic round robin study part 1: Document forgery" in Science & Justice, 62, no. 4 (2022):433-447,
https://doi.org/10.1016/j.scijus.2022.06.001 . .
3
5

N-doped carbon dots improve fingerprint imaging

Milenković, Ivana; Algarra, Manuel; Lazaro-Martinez, Juan M.; Rodriguez-Castellon, Enrique; Radotić, Ksenija

(Faculty of Technology, University of Novi Sad, 2021)

TY  - CONF
AU  - Milenković, Ivana
AU  - Algarra, Manuel
AU  - Lazaro-Martinez, Juan M.
AU  - Rodriguez-Castellon, Enrique
AU  - Radotić, Ksenija
PY  - 2021
UR  - http://rimsi.imsi.bg.ac.rs/handle/123456789/1858
AB  - Fingerprints analysis has been used as a powerful and reliable tool for individual identification in forensic science for more than a century. Some traditional techniques used toxic agents, so the application of fluorescent biocompatible materials, such as N-Carbon Dots (N-CDs), can be used as-received and it is non-toxic, as opposed to a lead carbonate powder routinely used by the police. N-CDs have recently gained the attention of scientists because of their stable luminescence, hydrophilicity, chemical inertness, photo-bleaching resistance, easiness of their functionalization, and low cost. In this research, N-CDs were obtained in a simple step process using the hydrothermal treatment of polyvinylpyrrolidone (PVP), as an N source, and further used for the detection of fingerprints through fluorescent imaging. A brightness emission at 495 nm of N-CDs was related to their structural and chemical properties. Detailed surface characterizations with ss-NMR, XPS, and fluorescence spectroscopies, suggested that the negative charge of the functional groups promoted electrostatic interactions between the charged N-CDs surface functional groups (amine, carboxylic, and amide) and the secretion components present in the thin layer of fluid left on the surface upon its direct contact with human fingers. Based on biometric identification, the obtained results were validated by the scientific protocol of the Police Automated Fingerprint Identification System (AFIS).
PB  - Faculty of Technology, University of Novi Sad
C3  - 14th ECerS Conference for Young Scientists in Ceramics
T1  - N-doped carbon dots improve fingerprint imaging
EP  - 46
SP  - 45
UR  - https://hdl.handle.net/21.15107/rcub_rimsi_1858
ER  - 
@conference{
author = "Milenković, Ivana and Algarra, Manuel and Lazaro-Martinez, Juan M. and Rodriguez-Castellon, Enrique and Radotić, Ksenija",
year = "2021",
abstract = "Fingerprints analysis has been used as a powerful and reliable tool for individual identification in forensic science for more than a century. Some traditional techniques used toxic agents, so the application of fluorescent biocompatible materials, such as N-Carbon Dots (N-CDs), can be used as-received and it is non-toxic, as opposed to a lead carbonate powder routinely used by the police. N-CDs have recently gained the attention of scientists because of their stable luminescence, hydrophilicity, chemical inertness, photo-bleaching resistance, easiness of their functionalization, and low cost. In this research, N-CDs were obtained in a simple step process using the hydrothermal treatment of polyvinylpyrrolidone (PVP), as an N source, and further used for the detection of fingerprints through fluorescent imaging. A brightness emission at 495 nm of N-CDs was related to their structural and chemical properties. Detailed surface characterizations with ss-NMR, XPS, and fluorescence spectroscopies, suggested that the negative charge of the functional groups promoted electrostatic interactions between the charged N-CDs surface functional groups (amine, carboxylic, and amide) and the secretion components present in the thin layer of fluid left on the surface upon its direct contact with human fingers. Based on biometric identification, the obtained results were validated by the scientific protocol of the Police Automated Fingerprint Identification System (AFIS).",
publisher = "Faculty of Technology, University of Novi Sad",
journal = "14th ECerS Conference for Young Scientists in Ceramics",
title = "N-doped carbon dots improve fingerprint imaging",
pages = "46-45",
url = "https://hdl.handle.net/21.15107/rcub_rimsi_1858"
}
Milenković, I., Algarra, M., Lazaro-Martinez, J. M., Rodriguez-Castellon, E.,& Radotić, K.. (2021). N-doped carbon dots improve fingerprint imaging. in 14th ECerS Conference for Young Scientists in Ceramics
Faculty of Technology, University of Novi Sad., 45-46.
https://hdl.handle.net/21.15107/rcub_rimsi_1858
Milenković I, Algarra M, Lazaro-Martinez JM, Rodriguez-Castellon E, Radotić K. N-doped carbon dots improve fingerprint imaging. in 14th ECerS Conference for Young Scientists in Ceramics. 2021;:45-46.
https://hdl.handle.net/21.15107/rcub_rimsi_1858 .
Milenković, Ivana, Algarra, Manuel, Lazaro-Martinez, Juan M., Rodriguez-Castellon, Enrique, Radotić, Ksenija, "N-doped carbon dots improve fingerprint imaging" in 14th ECerS Conference for Young Scientists in Ceramics (2021):45-46,
https://hdl.handle.net/21.15107/rcub_rimsi_1858 .