Javascript must be enabled to continue!
Comprehensive study on impact of hydrogen peroxide decomposition on the crucial parameters of OSM-type energetic materials
View through CrossRef
Abstract
The use of increasingly advanced energetic materials (EMs) in various branches of industry and military sectors increases the appropriate requirements for EMs, including: their durability, safety of use, chemical and high-energetic properties. Additionally, the impact of the products of the explosion of EMs on the natural environment is also crucial. Therefore, on-site mixture (OSM) energetic materials containing concentrated hydrogen peroxide (OSM-type energetic materials) are becoming increasingly popular. This is an extremely interesting group of materials that contains in excess of 50 wt.% hydrogen peroxide (HP) and not containing toxic compounds, and therefore is environmentally friendly. The main objective of the study was to investigate the various compositions of OSM-type energetic materials in terms of the evolution over time of their energetic properties (including the “raw” energetic material strength and the ability to sustain the propagation of a detonation wave) and the volume of the post-detonation gases. The obtained results show that the decomposition of hydrogen peroxide strongly affects the detonation parameters of OSM-type energetic material and the decomposition time of HP. In addition, it has been proven that rate of decomposition of HP significantly affects the detonation parameters of OSM-type energetic materials. It was also found that the concentration of NO
$$_{\hbox {x}}$$
x
is low and decreases dramatically with the decomposition of hydrogen peroxide, but at the same time the concentration of carbon oxides increases.
Springer Science and Business Media LLC
Title: Comprehensive study on impact of hydrogen peroxide decomposition on the crucial parameters of OSM-type energetic materials
Description:
Abstract
The use of increasingly advanced energetic materials (EMs) in various branches of industry and military sectors increases the appropriate requirements for EMs, including: their durability, safety of use, chemical and high-energetic properties.
Additionally, the impact of the products of the explosion of EMs on the natural environment is also crucial.
Therefore, on-site mixture (OSM) energetic materials containing concentrated hydrogen peroxide (OSM-type energetic materials) are becoming increasingly popular.
This is an extremely interesting group of materials that contains in excess of 50 wt.
% hydrogen peroxide (HP) and not containing toxic compounds, and therefore is environmentally friendly.
The main objective of the study was to investigate the various compositions of OSM-type energetic materials in terms of the evolution over time of their energetic properties (including the “raw” energetic material strength and the ability to sustain the propagation of a detonation wave) and the volume of the post-detonation gases.
The obtained results show that the decomposition of hydrogen peroxide strongly affects the detonation parameters of OSM-type energetic material and the decomposition time of HP.
In addition, it has been proven that rate of decomposition of HP significantly affects the detonation parameters of OSM-type energetic materials.
It was also found that the concentration of NO
$$_{\hbox {x}}$$
x
is low and decreases dramatically with the decomposition of hydrogen peroxide, but at the same time the concentration of carbon oxides increases.
Related Results
Serum Oncostatin M in Ulcerative Colitis Patients and Its Relation to Disease Activity
Serum Oncostatin M in Ulcerative Colitis Patients and Its Relation to Disease Activity
Ulcerative colitis (UC) is a chronic, relapsing inflammatory bowel disease; non-invasive biomarkers that accurately reflect the endoscopic and histological activity of UC require v...
Abstract 1538: Oncostatin-M ligand-based CAR T-cell therapy targets and eliminates lung adenocarcinoma
Abstract 1538: Oncostatin-M ligand-based CAR T-cell therapy targets and eliminates lung adenocarcinoma
Abstract
Background:
A major barrier to effective CAR T-cell therapy in solid tumors is the dense extracellular matrix an...
Serial Lipocalin 2 and Oncostatin M levels reflect inflammation status and treatment response in axial spondyloarthritis
Serial Lipocalin 2 and Oncostatin M levels reflect inflammation status and treatment response in axial spondyloarthritis
Abstract
Background: Informative serum biomarkers for monitoring inflammatory activity and treatment responses in axial spondyloarthritis (axSpA) are lacking. We assessed w...
Abstract 6994: Impact of Urine Osmolality at Discharge on Prognosis in Heart Failure Patients
Abstract 6994: Impact of Urine Osmolality at Discharge on Prognosis in Heart Failure Patients
Introduction:
Urine osmolality (U-OSM) is determined by the balance of water and solutes, antidiuretic hormone, and renal function. U-OSM can be altered in heart failur...
Abstract 1580: Molecular mechanisms of OSM-induced VEGF in breast cancer
Abstract 1580: Molecular mechanisms of OSM-induced VEGF in breast cancer
Abstract
Oncostatin M (OSM) is an interleukin-6 (IL-6) family cytokine that has been shown to induce expression of vascular endothelial growth factor (VEGF) in astro...
Immediate drop of urine osmolality upon tolvaptan initiation predicts impact on renal prognosis in patients with ADPKD
Immediate drop of urine osmolality upon tolvaptan initiation predicts impact on renal prognosis in patients with ADPKD
ABSTRACT
Background
Tolvaptan, a vasopressin V2 receptor antagonist, is used for treating autosomal dominant polycystic kidney d...
Elucidating hydrogen-solid interactions using computational modeling
Elucidating hydrogen-solid interactions using computational modeling
Hydrogen has significant chemical utility, both as a synthetic reagent and as an energy carrier. As the world moves away from fossil fuels being the predominant energy carrier, the...
Research progress of hydrogen tunneling in two-dimensional materials
Research progress of hydrogen tunneling in two-dimensional materials
One-atom-thick material such as graphene, graphene derivatives and graphene-like materials, usually has a dense network lattice structure and therefore dense distribution of electr...

