[1] A.L. Hayu, E. Hanindito, H. Hamzah H, A. Utariani, Effectiveness of high-flow inhalation anesthesia technique using isoflurane compared to low-flow inhalation anesthesia technique using sevoflurane and isoflurane in terms of cost and safety,
Bali Journal of Anesthesiology, 2019,
3, 170–173. [
Crossref], [
Google Scholar], [
Publisher]
[2] F. Ratsmita, M. Ilyas, Biomonitoring of sevoflurane exposure in anesthesiologist,
The Indonesian Journal of Public Health, 2021,
16, 57–69. [
Crossref], [
Google Scholar], [
Publisher]
[3] M.E. Grams, Y. Sang, J. Coresh, S. Ballew, K. Matsushita, M.Z. Molnar, Z. Szabo, K. Kalantar-Zadeh, CP. Kovesdy, Acute kidney injury after major surgery: A retrospective analysis of veterans health administration data,
American Journal of Kidney Diseases, 2016,
67, 872–880. [
Crossref], [
Google Scholar], [
Publisher]
[4] A. Zarbock, M.K. Nadim, P. Pickkers, H. Gomez, S. Bell, M. Joannidis, K. Kashani, J.L. Koyner, N. Pannu, M. Meersch, T. Reis, T. Rimmelé, S.M. Bagshaw, R. Bellomo, V. Cantaluppi, A. Deep, S. De Rosa, X. Perez-Fernandez, F. Husain-Syed, S.L. Kane-Gill, Y. Kelly, R.L. Mehta, P.T. Murray, M. Ostermann, J. Prowle, Z. Ricci, E.J. See, A. Schneider, D.E. Soranno, A. Tolwani, G. Villa, C. Ronco, L.G. Forni, Sepsis-associated acute kidney injury: consensus report of the 28th acute disease quality initiative workgroup,
Nature Reviews Nephrology,
2023,
19, 401–417. [
Crossref], [
Google Scholar], [
Publisher]
[5] K. Harimin, T. Bisri, Efek anestesia aliran rendah sevofluran terhadap respon inflamasi pada susunan saraf pusat,
Jurnal Neuroanestesi Indonesia, 2014,
3, 121–31. [
Crossref], [
Google Scholar], [
Publisher]
[7] R. Sivaci, S. Demir, T. Koken, Y. Sivaci, S. Yilmaz, Biochemical effects of low-flow anesthesia with inhalation agents in patients undergoing laparoscopic surgery,
Journal of Medical Biochemistry,
2012,
31, 53-59. [
Crossref], [
Google Scholar], [
Publisher]
[8] R. Ghatanatti, A. Teli, S.S. Tirkey, S. Bhattacharya, G. Sengupta, A. Mondal, Role of renal biomarkers as predictors of acute kidney injury in cardiac surgery,
Asian Cardiovascular and Thoracic Annals,
2014,
22, 234–241. [
Crossref], [
Google Scholar], [
Publisher]
[10] C. Thongprayoon, P. Hansrivijit, K. Kovvuru, S.R. Kanduri, A. Torres-Ortiz, P. Acharya, M.L. Gonzalez-Suarez, W. Kaewput, T. Bathini, W. Cheungpasitporn, Diagnostics, risk factors, treatment and outcomes of acute kidney injury in a new paradigm,
Journal of Clinical Medicine,
2020,
9, 1104. [
Crossref], [
Google Scholar], [
Publisher]
[11] MR. Kurniawan, E. Kusrini, Ureum and creatinine health study in patient diabetes mellitus,
Indonesian Journal of Medical Laboratory Science and Technology, 2020,
2, 85-92. [
Crossref], [
Google Scholar], [
Publisher]
[12] K. Wang, S. Xie, K. Xiao, P. Yan, W. He, L. Xie, Biomarkers of sepsis-induced acute kidney injury,
BioMed Research International,
2018,
2018, 6937947. [
Crossref], [
Google Scholar], [
Publisher]
[13] F.F. Luft, Biomarkers and predicting acute kidney injury,
Acta Physiologica (Oxford, England),
2021,
231, 13479. [
Crossref], [
Google Scholar], [
Publisher]
[14] A. Syadiah, E. Febrina, L. Levita, Review neutrophil gelatinase-associated lipocalin (ngal): perannya sebagai biomarker pada kerusakan ginjal akut,
Jurnal Sains Farmasi & Klinis,
2021,
8, 35-42. [
Crossref], [
Google Scholar], [
Publisher]
[15] J. Mårtensson, R. Bellomo, The rise and fall of NGAL in acute kidney injury,
Blood Purification, 2014,
37, 304–310. [
Crossref], [
Google Scholar], [
Publisher]
[16] K. Mori, H.T. Lee, D. Rapoport, I.R. Drexler, K. Foster, J. Yang, K.M. Schmidt-Ott, X. Chen, J.Y. Li, S. Weiss, J. Mishra, Endocytic delivery of lipocalin-siderophore-iron complex rescues the kidney from ischemia-reperfusion injury,
The Journal of Clinical Investigation, 2005,
115, 610-621. [
Crossref], [
Google Scholar], [
Publisher]
[17] H. Cassidy, J. Slyne, M. Higgins, R. Radford, P.J. Conlon, A.J. Watson, M.P. Ryan, T. McMorrow, C. Slattery, Neutrophil gelatinase-associated lipocalin (NGAL) is localised to the primary cilium in renal tubular epithelial cells-a novel source of urinary biomarkers of renal injury,
Biochimica et Biophysica Acta (BBA)-Molecular Basis of Disease,
2019,
1865, 165532. [
Crossref], [
Google Scholar], [
Publisher]
[18] P. Devarajan, NGAL for the detection of acute kidney injury in the emergency room,
Biomarkers In Medicine,
2014,
8, 217–219. [
Crossref], [
Google Scholar], [
Publisher]
[19] A. Clerico, C. Galli, A. Fortunato, C. Ronco, Neutrophil gelatinase-associated lipocalin (NGAL) as biomarker of acute kidney injury: a review of the laboratory characteristics and clinical evidences,
Clinical Chemistry and Laboratory Medicine,
2012,
50, 1505–1517. [
Crossref], [
Google Scholar], [
Publisher]
[20] K. Makris, D. Stefani, E. Makri, I. Panagou, M. Lagiou, A. Sarli, M. Lelekis, C. Kroupis, Evaluation of a particle enhanced turbidimetric assay for the measurement of neutrophil gelatinase-associated lipocalin in plasma and urine on Architect-8000: Analytical performance and establishment of reference values,
Clinical Biochemistry,
2015,
48, 1291-1297. [
Crossref], [
Google Scholar], [
Publisher]
[21] V. Pennemans, J.M. Rigo, C. Faes, C. Reynders, J. Penders, Q. Swennen, Establishment of reference values for novel urinary biomarkers for renal damage in the healthy population: are age and gender an issue?,
Clinical Chemistry And Laboratory Medicine,
2013,
51, 1795-1802. [
Crossref], [
Google Scholar], [
Publisher]
[22] K. Helanova, J. Spinar, J. Parenica, Diagnostic and prognostic utility of neutrophil gelatinase-associated lipocalin (NGAL) in patients with cardiovascular diseases—review,
Kidney Blood Press Res,
2014,
39, 623–629. [
Crossref], [
Google Scholar], [
Publisher]
[23] N.S. Budi, A. Arie Utariani, E. Hanindito, B.P. Semedi, N. Asmaningsih, The validity of urinary neutrophil gelatinase-associated lipocalin (NGAL) as a biomarker of acute kidney injury in pediatric patients with sepsis,
Critical Care Shock,
2021,
24. [
Google Scholar], [
Publisher]
[24] W. Vandenberghe, J. De Loor, E.A. Hoste, Diagnosis of cardiac surgery-associated acute kidney injury from functional to damage biomarkers,
Current Opinion in Anesthesiology,
2017,
30, 66–75. [
Crossref], [
Google Scholar], [
Publisher]
[25] N. Tidbury, N. Browning, M. Shaw, M. Morgan, I. Kemp, B. Matata, Neutrophil gelatinase-associated lipocalin as a marker of postoperative acute kidney injury following cardiac surgery in patients with preoperative kidney impairment,
Cardiovascular & Haematological Disorders-Drug Targets (Formerly Current Drug Targets-Cardiovascular & Hematological Disorders),
2019,
19, 239-248. [
Crossref], [
Google Scholar], [
Publisher]
[26] J.H. Greenberg, M. Zappitelli, Y. Jia, H.R. Thiessen-Philbrook, C.A. De Fontnouvelle, F.P. Wilson, S. Coca, P. Devarajan, C.R. Parikh, Biomarkers of AKI progression after pediatric cardiac surgery,
Journal of the American Society of Nephrology,
2018,
29, 1549-1556. [
Crossref], [
Google Scholar], [
Publisher]
[27] K.M. Tecson, E. Erhardtsen, P.M. Eriksen, A.O. Gaber, M. Germain, L. Golestaneh, M. de los Angeles Lavoria, L.W. Moore, P.A. McCullough, Optimal cut points of plasma and urine neutrophil gelatinase-associated lipocalin for the prediction of acute kidney injury among critically ill adults: retrospective determination and clinical validation of a prospective multicentre study,
BMJ Open,
2017,
7, 16028. [
Crossref], [
Google Scholar], [
Publisher]
[28] T. Rubinstein, M. Pitashny, B. Levine, N. Schwartz, J. Schwartzman, E. Weinstein, J.M. Pego-Reigosa, T.Y.T. Lu, D. Isenberg, A. Rahman, C. Putterman, Urinary neutrophil gelatinase-associated lipocalin as a novel biomarker for disease activity in lupus nephritis,
Rheumatology,
2010,
49, 960-971. [
Crossref], [
Google Scholar], [
Publisher]
[29] A.N. Saputra, P.S. Airlangga, B.A. Rahman, E. Kusuma, P. Kriswidyatomo, C. Sumartomo, Role of neutrophil gelatinase-associated lipocalin (NGAL) as a acute prerenal kidney injury marker: Exploring factors associated with its postoperative levels in hypotension-controlled otorhinolaryngology surgery,
Bali Medical Journal,
2022,
11, 1844-1848. [
Crossref], [
Google Scholar], [
Publisher]
[30] J.F. Butterworth IV, D.C. Mackey, J.D. Wasnick, Inhalation anesthetics,
Morgan & Mikhail’s Clinical Anesthesiology, New York, NY: McGraw-Hill Education,
2013. [
Google Scholar], [
Publisher]
[31] P.D.D. RehI, Comparison of cost-effectiveness analysis (CEA) between sevoflurane inhalation anesthetic and propofol total intravenous anesthesia (TIVA) in craniotomy surgery: A literature review,
Bali Medical Journal,
2023,
12, 1790-1795. [
Google Scholar], [
Publisher]
[32] M. Upadya, P.J. Saneesh, Low-flow anaesthesia- underused mode towards ‘sustainable anaesthesia’,
Indian Journal of Anaesthesia,
2018,
62, 166–172. [
Crossref], [
Google Scholar], [
Publisher]
[33] C. Hönemann, B. Mierke, Low-flow, minimal-flow and metabolic-flow anaesthesia. Clinical techniques for use with rebreathing systems, Drägerwerk AG&Co. Lübeck, Germany,
2014. [
Google Scholar], [
Publisher]
[35] A.N.M. Ansori, M.H. Widyananda, Y. Antonius, A.A.A. Murtadlo, V.D. Kharisma, P.A. Wiradana, S. Sahadewa, F.D. Durry, N. Maksimiuk, M. Rebezov, R. Zainul, A review of cancer-related hypercalcemia: Pathophysiology, current treatments, and future directions,
Journal of Medicinal and Pharmaceutical Chemistry Research,
2024,
6, 944-952. [
Crossref], [
Pdf], [
Publisher]