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| # | Type | Title | Author | Publisher | Pub. Year | Subjects | Call Number |
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| 1 | مقاله | Mechanical characterization of the ligaments in subject-specific models of the patellofemoral joint using in vivo laxity tests | Akbar, M. | Elsevier B.V, | 2019 |
Biplane fluoroscopy.
Laxity test. LPFL. MPFL. Pshift. Patellar tilt. Article. Calibration. Computer assisted tomography. Controlled study. Fluoroscopy. Human. In vivo study. Knee function. Ligament. Nuclear magnetic resonance. Prediction. Rigidity. Sensitivity analysis. Spring. Validation process. Volunteer. Biological model. Joint characteristics and functions. Joint ligament. Nuclear magnetic resonance imaging. Pathophysiology. Physiology. X-Ray computed tomography. Adult. Cadaver. Humans. Knee. Ligaments, articular. Magnetic resonance imaging. Male. Patella. Patellofemoral joint. Patient-Specific modeling. Range of motion, articular. Tomography, X-Ray computed. |
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| 2 | مقاله | Improved artificial neural networks for 3D body posture and lumbosacral moment predictions during manual material handling activities | Mohseni, M. | Elsevier Ltd, | 2022 |
Artificial neural networks.
Knee flexion angle. Lifting technique. Lumbosacral moment. Spine. Anthropometry. Forecasting. Physiological models. Risk assessment. Body postures. Body weight. Lifting techniques. Manual materials handling. Posture measurement. Posture prediction. Segmental orientation. Neural networks. Adult. Artificial neural network. Body position. Controlled study. Human. In vivo study. Knee function. Materials handling. Prediction. Workplace. Biomechanics. Building. Lumbar vertebra. Weight bearing. Biomechanical Phenomena. Humans. Lifting. Lumbar Vertebrae. Neural Networks, Computer. Posture. Weight-Bearing. |
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| 3 | مقاله | Multi-task artificial neural networks and their extrapolation capabilities to predict full-body 3D human posture during one- and two-handed load-handling activities | Mohseni, M. | 2024 |
Lifting techniques.
Machine learning. Posture prediction. Hand. Humans. Overweight. Thinness. Errors. Extrapolation. Floors. Forecasting. Motion analysis. Regression analysis. Extrapolation capability. Full body. Joint coordinates. Lefthanded. Mass index. Biomechanics. Body mass. Data accuracy. Human experiment. Joint angle. Kinematics. Left handedness. Materials handling. Motion capture. Normal human. Prediction. Right handedness. Skin. Three-dimensional imaging. Artificial neural network. Body position. Obesity. Underweight. Neural networks. |
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| 4 | مقاله | Prediction of post-operative clinical indices in scoliosis correction surgery using an adaptive neuro-fuzzy interface system | Abedi, R. | Mashhad University of Medical Sciences, | 2023 |
Cobb angle.
Pelvic incidence. Posterior surgery. Spine. Thoracic kyphosis. |
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| 5 | مقاله | Prediction of fusion rod curvature angles in posterior scoliosis correction using artificial intelligence | Abedi, R. | 2024 |
Biomechanical modeling.
Cobb angle. Neural networks. Posterior surgery. Rod kyphosis. Adolescent. Adolescent idiopathic scoliosis. Analysis. Artificial intelligence. Artificial neural network. Biomechanics. Comparative study. Female. Human. Inverse dynamics analysis. Joint moments. kyphosis. Lordosis. Lumbar lordosis angle. Major clinical study. Male. Musculoskeletal system parameters. Pelvic incidence. Postoperative period. Prediction. Preoperative evaluation. Retrospective study. Rod kyphosis angle. Rod lordosis angle. Root mean squared error. Sagittal spinal parameter. Spine fusion. Spine radiography. Support vector machine. Surgical patient. T1 spinopelvic inclination. Thoracic Cobb angle. Thoracic kyphosis angle. |
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| 6 | مقاله | A rigid thorax assumption affects model loading predictions at the upper but not lower lumbar levels | Ignasiak, D. | Elsevier Ltd | 2016 |
Musculoskeletal modeling.
Thoracolumbar spine. Forecasting. Muscle. Musculoskeletal system. Compressive forces. Compressive loading. Lumbar spines. Musculoskeletal model. Predictive power. Spinal loads. Three models. Loads (forces) |
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| 7 | مقاله | Prediction of the thorax/pelvis orientations and L5–S1 disc loads during various static activities using neuro-fuzzy | Mousavi, S. H. | Korean Society of Mechanical Engineers, | 2020 |
Biomechanical model.
Loads. Neuro-fuzzy. Posture. Reaching. Spine. Computer circuits. Ergonomics. Forecasting. Fuzzy inference. Fuzzy neural networks. Inference engines. Loads (forces) Three dimensional computer graphics. Bio-mechanical models. Crucial parameters. Fuzzy logic rules. In-vivo measurement. Intervertebral discs. Levenberg-Marquardt algorithm. Maximum relative errors. Musculoskeletal model. Fuzzy logic. |
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| 8 | مقاله | Effects of auxetic shoe on lumbar spine kinematics and kinetics during gait and drop vertical jump by a combined in vivo and modeling investigation | Dehaghani, M. R. | Nature Research, | 2022 |
Biomechanics.
Gait. Human. Kinetics. knee. Lumbar vertebra. Physiology. Shoe. Biomechanical Phenomena. Gait. Humans. Kinetics. Knee Joint. Lumbar Vertebrae. Shoes. |
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| 9 | مقاله | Novel force–displacement control passive finite element models of the spine to simulate intact and pathological conditions; comparisons with traditional passive and detailed musculoskeletal models | Abbasi-Ghiri, A. | Elsevier Ltd, | 2022 |
Model.
Spine. Finite element method. Loads (forces) Muscle. Adjacent segment. Displacement. Finite element modelling (FEM) Force. Force displacement. In-vivo. Musculoskeletal. Passive finite element. Pathological conditions. Displacement control. Animal experiment. Animal model. Body position. Compression. Controlled study. Finite element analysis. Gold standard. Human. In vivo study. Ligament. Nonhuman. Physiological stress. Rotation. Simulation. Zygapophyseal joint. Biological model. Biomechanics. Intervertebral disk. Joint characteristics and functions. Lumbar vertebra. Physiology. Weight bearing. Biomechanical phenomena. Intervertebral disc. Lumbar vertebrae. Models, Biological. Range of Motion, Articular. Weight-Bearing. |
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| 10 | مقاله | Comparison of pedicle screw pull-out forces using two vertebral bone material mappings: A patient-specific finite element modeling study | Rouyin, A. | Institute of Electrical and Electronics Engineers Inc, | 2023 |
Finite element method.
Misplaced screws. Patient-specific modeling. Pull-out strength. Screw loosening. |
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| 11 | مقاله | Comparison of different risk assessment tools to manage musculoskeletal disorders among workers in an automobile manufacturing company | Jafarian, M. | Institute of Electrical and Electronics Engineers Inc, | 2023 |
Administrative interventions.
Engineering interventions. Job analysis. Low back pain. Musculoskeletal disorders. Occupational risk assessment. |
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| 12 | مقاله | Effect of considering stability requirements on antagonistic muscle activities using a musculoskeletal model of the human lumbar spine | Hajihoseinali, M. | 2013 |
Lumbar spine.
Muscle recruitment. Musculoskeletal modeling. Biomedical engineering. Convergence of numerical methods. Muscle. Antagonistic muscles. Human lumbar spines. Lumbar spines. Muscle activities. Musculoskeletal model. Stability constraints. Stability requirements. Three-dimensional model. Stability. |
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| 13 | مقاله | A stability-based model of a growing spine with adolescent idiopathic scoliosis: A combination of musculoskeletal and finite element approaches | Kamal, Z. | Elsevier Ltd, | 2019 |
Adolescent idiopathic scoliosis.
Finite element analysis. Growth modulation. Musculoskeletal model. Spine stability. Computerized tomography. Modulation. Musculoskeletal system. Shear stress. Stability. Computed tomography images. Finite-element approach. Octahedral shear stress. Rehabilitation strategy. Finite element method. Bone radiography. Cobb angle. Computer assisted radiography. Computer assisted tomography. First lumbar vertebra. Fourth lumbar vertebra. Gravity. Growth rate. Human. Hydrostatic pressure. Image analysis. Mathematical model. Muscle strength. Muscle stress. Priority journal. Shear stress. Stokes model. Biological model. Child. Growth, development and aging. Muscle. Pathophysiology. Child. Humans. Models, Biological. Muscles. Scoliosis. Spine. |
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| 14 | مقاله | Comparison of different lifting analysis tools in estimating lower spinal loads – Evaluation of NIOSH criterion | Ghezelbash, F. | Elsevier Ltd, | 2020 |
Lifting analysis tools.
Musculoskeletal modeling. Spinal loads. Anthropometry. Biomechanics. Health risks. Loads (forces) Materials handling. Occupational risks. Risk assessment. Safety engineering. Statistics. In-vivo measurement. Intradiscal pressures. Manual material handling. Musculoskeletal model. National institute for occupational safety and healths. Regression equation. Spinal compression. Standard deviation. Risk perception. Article. Asymmetric lifting task. Backache. Body weight. Comparative study. In vivo study. Injury. Intervertebral disk. Lifting equation. Mathematical model. Multiple regression. Musculoskeletal system parameters. Physical activity. Priority journal. Qualitative analysis. Recommended weight limit. Risk factor. Shear stress. Spinal cord compression. Spinal load. Symmetric lifting task. |
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| 15 | مقاله | A catalyzed method to remove polychlorinated biphenyls from contaminated transformer oil | Maghami, A. | Springer Science and Business Media Deutschland GmbH, | 2021 |
Catalyst.
Transformer oil. PCBs. Palladium. MWCNTs. Hydrodechlorination. |
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| 16 | مقاله | Fuzzy adaptive sliding mode control of chaos | Arjmand, M. T. | American Society of Mechanical Engineers (ASME), | 2006 |
Adaptive control systems.
Algorithms. Computer simulation. Fuzzy systems. Least squares approximations. Sliding mode control. Duffing's equation. Fuzzy identification methods. Fuzzy modeling. Gradient descent. Chaotic systems. |
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| 17 | مقاله | A catalyzed method to remove polychlorinated biphenyls from contaminated transformer oil | Maghami, A. | Springer Science and Business Media Deutschland GmbH, | 2022 |
Catalyst.
Hydrodechlorination. MWCNTs. Palladium. PCBs. Transformer oil. Activation energy. Bioactivity. Hydrogen. Oil. PCB. Reaction rate. Waste disposal. Carbon nanotube. Chlorine. Polychlorinated biphenyl. Pollutant. Catalysis. Chlorine. Environmental Pollutants. Nanotubes, Carbon. Polychlorinated Biphenyls. |
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| 18 | مقاله | Elevation and orientation of external loads influence trunk neuromuscular response and spinal forces despite identical moments at the L5-S1 level | Ouaaid, Z. E. | 2014 |
Compression.
Finite element. Load height. Load orientation. Muscle forces. Finite element method. External loads. Spinal forces. Compaction. Biomechanics. Electromyogram. Finite element analysis. Force. Gravity. Human. Human experiment. Kinematics. Lumbar spine. Male. Mathematical model. Muscle strength. Neuromuscular function. Normal human. Sacrum. Shear strength. Skeletal muscle. Spine. Trunk. Weight bearing. |
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| 19 | مقاله | Obesity and spinal loads; a combined MR imaging and subject-specific modeling investigation | Akhavanfar, M. H. | Elsevier Ltd, | 2018 |
Spine loads.
Magnetic resonance imaging. Muscle. Musculoskeletal system. Nutrition. Epidemiological studies. MR imaging. Musculoskeletal model. Obesity. Subject specific modeling. Subject specific models. Subject-specific. Subject-specific musculoskeletal modelling. Radiology. |
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| 20 | مقاله | Obesity and spinal loads; a combined MR imaging and subject-specific modeling investigation | Akhavanfar, M. H. | 2017 |
Spine loads.
Magnetic resonance imaging. Muscle. Musculoskeletal system. Nutrition. Epidemiological studies. MR imaging. Musculoskeletal model. Obesity. Subject specific modeling. Subject specific models. Subject-specific. Subject-specific musculoskeletal modelling. Radiology. |
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