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Atelectasis

Atelectasis is a condition characterized by the partial or complete collapse of the lung.
It occurs when the alveoli (tiny air sacs in the lungs) fail to remain open, leading to reduced gas exchange and respiratory distress.
Atelectasis can be caused by a variety of factors, including airway obstruction, compression of the lung, and surfactant deficiency.
Prompt diagnosis and treatment are crucial to prevent further complications.
PubCompare.ai can help researchers optimize atelectasis research by providing AI-driven comparisons across the latest literature, pre-prints, and patents, enhancing reproducibility and accuracy.
Expereince the power of PubCompare.ai to advance your atelectasis research today.

Most cited protocols related to «Atelectasis»

Tumor slides from the internal training cohort were reviewed by 2 pathologists (K.K. and W.D.T.) who were blinded to patient clinical outcomes; they used an Olympus BX51 microscope (Olympus Optical Co. Ltd., Tokyo, Japan) with a standard 22-mm diameter eyepiece.
Tumor STAS was defined as tumor cells within air spaces in the lung parenchyma beyond the edge of the main tumor (Figure 1A and 1D) and was composed of 3 morphological patterns: 1) micropapillary structures consisting of papillary structures without central fibrovascular cores (Figure 1A and 1B),15 (link), 16 (link) which occasionally form ring-like structures within air spaces (Figure 1C); 2) solid nests or tumor islands consisting of solid collections of tumor cells filling air spaces (Figure 1D and 1E)17 (link); and 3) single cells consisting of scattered discohesive single cells (Figure 1F). The edge of the main tumor was defined as the smooth surface of the tumor which is easily recognizable at gross or at low-power field examination as highlighted with the dotted line in Figure 1A. Tumor STAS was considered present when tumor STAS, as defined above, was identified beyond the edge of the main tumor even if it existed only in the first alveolar layer from the tumor edge. Lesions of STAS consist of tumor cells which morphologically appear to be situated within air spaces as micropapillary clusters, solid nests or single cells that are detached from alveolar walls. This differs from lepidic growth where tumor cells grow in a linear fashion along the surface of alveolar walls. Extent of air space filling by tumor cells varied from abundant cellular infiltrates to very inconspicuous single cells or micropapillary clusters that were sometimes difficult to distinguish from alveolar macrophages. In addition, distance between tumor surface and farthest STAS from tumor edge was measured by a ruler. Since lung specimens were not consistently inflated during processing, in order to account for artifactual atelectasis, we also measured according to the number of alveolar spaces.
Tumor cells of STAS were distinguished from alveolar macrophages using the following methods. Macrophages in smokers typically have cytoplasm containing faint brown pigment and black carbon granules while in nonsmokers the pigment is lacking and cytoplasm is sometimes foamy. Nuclei are small, uniform, and regular, without atypia. Nuclear folds are frequent and nucleoli are inconspicuous or absent. In contrast, tumor cells of STAS typically lack cytoplasmic pigment or foamy cytoplasm. They often grow in cohesive clusters and nuclei are atypical with hyperchromasia and frequent nucleoli. The distinction of STAS from artifacts was done in the following way. Tumor floaters were favored, by the presence of clusters of cells often randomly scattered over tissue and at the edges of the tissue section. Presence of jagged edges of tumor cell clusters suggested tumor fragmentation or edges of a knife cut during specimen processing rather than STAS. Linear strips of cells that were lifted off of alveolar walls also favored the presence of artifact. Identification of tumor cells distant from the main tumor was regarded as an artifact unless intraalveolar tumor cells could be demonstrated in a continuum of airspaces containing intraalveolar tumor cells back to the tumor edge.
According to the International Association for the Study of Lung Cancer, American Thoracic Society, and European Respiratory Society histological classification, the percentage of each histologic pattern—lepidic, acinar, papillary, solid, and micropapillary—was recorded in 5% increments and tumors were classified by their predominant pattern.1 (link) Each histologic pattern was considered present in the tumor when it comprised ≥5% of the overall tumor.7 (link) Presence of visceral pleural, lymphatic, and vascular invasion was also recorded.
Publication 2015
Atelectasis Blood Vessel Carbon Black Cell Nucleolus Cell Nucleus Cells Cytoplasm Cytoplasmic Granules Europeans Lung Lung Cancer Macrophage Macrophages, Alveolar Microscopy Neoplasms Non-Smokers Pathologists Patients Pigmentation Pleura, Visceral Respiratory Rate Snup Syncope Tissues Vision
We studied mechanically ventilated patients admitted to the emergency departments (EDs) or intensive care units (ICUs) of participating study hospitals, which were part of the NIH Prevention and Early Treatment of Acute Lung Injury (PETAL) Network. We excluded children, pregnant women, and prisoners. At the time a clinical ABG was obtained for a ventilated patient, the nurse or respiratory therapist obtaining the ABG completed a brief case report form (CRF) that included current SpO2, quality of the oximeter waveform, skin pigmentation (graded informally from very light to very dark, on a 5-point ordinal span, with reference skin pigments included on the CRF). Research coordinators then documented age, sex, body mass index (BMI), body temperature (as measured clinically, without preference for core vs. peripheral temperature measurements), ABG results, basic metabolic panel results, hemoglobin, Positive End Expiratory Pressure (PEEP), FIO2, tidal volume, receipt of vasopressors (i.e., epinephrine, norepinephrine, phenylephrine, dopamine, or vasopressin) at the time the ABG was obtained, and whether the patient met consensus criteria for ARDS other than hypoxemia. Specifically, site investigators individually reviewed chest radiographs and the medical record to assess whether ARDS criteria (acute onset of bilateral lung opacities not fully explained by effusions, lobar/lung collapse, or nodules) other than hypoxemia were met. ARDS was then considered present if the PaO2/FIO2 met relevant thresholds. Given resource constraints, we did not require a specific ABG sampling strategy or collect denominator data on the total number of ABGs performed in participating hospitals.
Data were uploaded to the Clinical Coordinating Center (CCC) at Massachusetts General Hospital, where quality analysis and cleaning were undertaken according to standard procedures. Each participating Institutional Review Board (IRB), including the CCC IRB, approved this study with waiver of informed consent on the basis of compliance with 45 CFR 46.116d.
Publication 2017
Acute Lung Injury Atelectasis Child Dopamine Epinephrine Ethics Committees, Research Hemoglobin Hormone, Antidiuretic Index, Body Mass Light Lung Norepinephrine Nurses Patients Phenylephrine Positive End-Expiratory Pressure Pregnant Women Prisoners Radiography, Thoracic Respiratory Distress Syndrome, Adult Respiratory Rate Saturation of Peripheral Oxygen Skin Pigmentation Tidal Volume Vasoconstrictor Agents
This study was approved by the Ethics Committee of Chongqing Three Gorges Central Hospital. We retrospectively studied the patients who were diagnosed with COVID-19 from January 21 to February 5, 2020, in our hospital. According to our hospital protocol, all patients suspected of having COVID-19 routinely underwent noncontrast CT examinations and were admitted in hospital for isolation and observation. CT was chosen over chest radiography on the basis of the assumption that the former is more sensitive to detect lung opacities.
A total of 102 patients with COVID-19 were confirmed by using a real-time reverse transcription polymerase chain reaction throat swab (12 ). Patients with lung malignancy, a history of lobectomy, tuberculosis, or atelectasis were excluded from this study. According to the “Diagnosis and Treatment Program of Pneumonia of New Coronavirus Infection (Trial Fifth Edition)” (13 ) recommended by China’s National Health Commission on February 5, 2020, patients with COVID-19 are classified as having minimal, common, severe, and critical disease. Patients with minimal disease have subtle clinical symptoms and no lung opacities on chest imaging and have been excluded from further analyses in this study. Common cases have symptoms such as fever and respiratory tract infection and chest images showing lung opacities. Severe cases should meet any of the following criteria: (a) respiratory distress, respiratory rate ≥ 30 beats per minute; (b) resting blood oxygen saturation ≤ 93%; or (c) partial pressure of arterial blood oxygen (PaO2) or oxygen concentration (FiO2) ≤ 300 mm Hg. Critical patients need to meet one of the following conditions: (a) respiratory failure and need for mechanical ventilation; (b) shock; and (c) other organ failure needing intensive care unit monitoring treatment.
For the purposes of this study, common cases were included in the mild disease group, whereas severe and critical cases were merged into the severe disease group because of the small number of cases in the latter category (n = 3).
Publication 2020
Atelectasis Chest Coronavirus Infections COVID 19 Diagnosis Ethics Committees, Clinical Fever isolation Lung Lung Cancer Mechanical Ventilation Oximetry Oxygen Patients Pharynx Physical Examination Pneumonia Radiography, Thoracic Real-Time Polymerase Chain Reaction Respiratory Failure Respiratory Rate Respiratory Tract Infections Reverse Transcription Shock Tuberculosis
The gross tumor volume was outlined on pulmonary CT windows, excluding soft tissue densities with standard uptake values (SUV) on PET less than 2 (likely to be atelectasis). No additional margin was added for possible microscopic extension. An institution appropriate error margin beyond this gross tumor volume (defined as the planning target volume) which included both set-up error and error related to motion, was limited to no more than 5 mm in the axial dimension and 10 mm in the craniocaudal dimension.
Patients received 60 Gy in 3 fractions of 20 Gy per fraction, which was prescribed to the edge of the planning target volume. Each fraction was separated by at least 40 hours (at most 8 days). The entire 3 fraction regimen was required to be completed within 14 days. Only 4 to 10 MV photon beams were allowed. For planning, no tissue density heterogeneity correction was allowed. Later analysis using proper accounting of density heterogeneity showed RTOG 0236 over-predicted the actual planning target volume dose such that the delivered dose was actually closer to 54 Gy in 3 fractions of 18 Gy11 (link).
Image guidance capable of confirming the position of the target with each treatment was required. Tumor motion related to respiration was required to be quantified using fluoroscopy or 4-dimensional (4-D) CT scans. If the motion confirmed with free breathing was greater than the maximum planning target volume expansions allowed by the protocol, a method of motion control such as abdominal compression, gating, breath holding was required.
Adequate target coverage was achieved when 95% of the planning target volume was covered by 60 Gy and when 99% of the planning target volume received at least 54 Gy. High dose conformality was controlled such that the volume of tissue outside of the planning target volume receiving a dose greater than 63 Gy must be less than 15% of the planning target volume and the target conformality index (ratio of the volume receiving 60 Gy to the planning target volume) was ≤1.2. Moderate dose conformality and gradient quality were controlled by the parameters listed in Table 1. The treatment plans also had to meet a number of contoured organ dose constraints (Table 2).
Publication 2010
Abdomen Atelectasis Cell Respiration Fluoroscopy Genetic Heterogeneity Infantile Neuroaxonal Dystrophy Lung Microscopy Neoplasms Patients Tissues Treatment Protocols X-Ray Computed Tomography
The changes in pH, pCO2, pO2 and sO2 elicited by injection of morphine (10 mg/kg, IV) in 3 separate groups of freely moving rats (n = 9 rats per group) followed 15 min later by injection of vehicle (saline; 80.0 ± 0.6 days of age; 342 ± 2 g body weight), d-cystine (500 μmol/kg, IV; 79.7 ± 0.4 days; 340 ± 2 g) or d-cystine diME (500 μmol/kg, IV; 79.3 ± 0.4 days; 338 ± 2 g) were determined as detailed previously (49). Arterial blood samples (100 μL) were taken 15 min before and 15 min after injection of morphine (10 mg/kg, IV). The rats then immediately received an injection of vehicle, d-cystine or d-cystine diME and blood samples were taken 5, 15, 30 and 45 min later. The pH, pCO2, pO2 and sO2 were measured using a Radiometer blood-gas analyzer (ABL800 FLEX). The A-a gradient measures difference between alveolar and arterial blood O2 concentrations23 (link),31 (link),32 (link). A decrease in PaO2, without a change in A-a gradient is normally accompanied by an increase in paCO2 (as observed here) if it is caused by hypoventilation. Hypoxia is irreversible if caused by shunt. An increased A-a gradient is caused either by oxygen diffusion limitation (usually not readily reversible) or ventilation-perfusion mismatch23 (link),31 (link),32 (link). A-a gradient = PAO2 − PaO2, where PAO2 is the partial pressure of alveolar O2 and PaO2 is pO2 in arterial blood. PAO2 = [(FiO2 × (Patm—PH2O)—(PaCO2/respiratory quotient)], where FiO2 is the fraction of O2 in inspired air; Patm is atmospheric pressure; PH2O is the partial pressure of H2O in inspired air; PaCO2 is pCO2 in arterial blood; and respiratory quotient (RQ) is the ratio of CO2 eliminated/O2 consumed. We took FiO2 of room-air to be 21% = 0.21, Patm to be 760 mmHg, and PH2O to be 47 mmHg23 (link). We did not determine RQ values directly, but took the resting RQ value of our adult male rats to be 0.9 on the basis of work by others33 (link),34 (link). Based on extensive evidence detailed by Mendoza et al.22 (link), we used a RQ value of 0.9 to calculate A-a gradient throughout the blood-gas protocols on the assumption that morphine and the thiolesters do not directly affect this value, although this must be directly addressed in our protocols at some point. Here, we had both alveolar hypoventilation and ventilation-mismatch. In almost all cases, when these two phenomena occur together and are readily reversed, the cause is decreased minute ventilation leading rapidly to atelectasis.
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Publication 2021
Adult Arteries Atelectasis Atmospheric Pressure BLOOD Body Weight Cystine Diffusion Hypoventilation Hypoxia Males Morphine Partial Pressure Perfusion Rattus norvegicus Respiratory Rate Saline Solution

Most recents protocols related to «Atelectasis»

The ARISCAT risk index is used to predict the following: respiratory failure, bronchospasm, respiratory infections, atelectasis, pneumothorax, pleural effusion, and aspiration pneumonitis.9 (link),10 (link) Atelectasis, pneumonia, or pleural effusion were diagnosed by routine clinical examination, chest radiography (chest x-ray or CT), and other relevant investigations. The risk score was classified as: Low risk: < 26, intermediate risk: 26–44, and High risk: ≥45 (Table 1).

Parameters of the ARISCAT Score and Risk Classification

Score ComponentsRisk Score
Age≤50 year0
51–80 year3
>80 year16
Preoperative oxygen saturation≥96%0
91–95%8
≤ 90%24
Respiratory infection in past 1 monthNo0
Yes17
Preoperative hemoglobin < 10g/dlNo0
Yes11
IncisionPeripheral incision0
Upper abdominal incision15
Intrathoracic incision24
Surgery duration<2 hours0
2–3 hours16
>3 hours23
Emergency procedureNo0
Yes8
RiskARISCAT Score
Low< 26 (1.6%)
Medium/Intermediate26–44 (13.3%)
High≥ 45 (42.1%)
Other PPCs have also been reported, such as phrenic dysfunction due to phrenic nerve injury, hoarseness due to recurrent laryngeal nerve injury, difficult extubation, wound infection, and other complications. The management of complications, duration of chest drainage, length of ICU and hospital stay, and patient outcomes (discharge or in-hospital mortality) were also recorded.
Publication 2023
Abdomen Aspiration Pneumonia Atelectasis Bronchospasm Hemoglobin Hoarseness Infection Injuries Nipple Discharge Oximetry Oxygen Oxygen Saturation Patient Discharge Patients Phrenic Nerve Physical Examination Pleural Effusion Pneumonia Pneumothorax Radiography, Thoracic Recurrent Laryngeal Nerve Injuries Respiratory Failure Respiratory Tract Infections Tracheal Extubation Wound Infection
Under general anesthesia with single-lumen endotracheal tube, all patients were positioned in the semi-sitting supine position at 45° with both arms abducted to 90°. Trocar (5 mm) was placed in the 4th intercostal space on the bilateral anterior axillary line, a 5-mm camera was introduced and Trocar was removed. A microelectrocautery hook was inserted along the original incision upon the camera, and artificial pneumothorax and the respiratory suspension were used to keep pulmonary collapse. In group A, we sectioned the R3 rami communicantes by fulgurating 2-cm outward along the lateral edge of the sympathetic chain in 2–3 mm of the third rib, leaving R3 sympathetic chain untouched, then fulgurating R4 sympathetic chain and R4 rami communicantes along the fourth rib (Figure 1). In group B, R3 sympathetic chain and R3 rami communicantes were severed by fulgurating along the third rib. The incision was closed after lung aeration recruitment, and thoracic imaging tests were reexamined after surgery to ensure there was no evidence of a pneumothorax or hemothorax before patients were discharged from the hospital.
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Publication 2023
Arm, Upper Atelectasis Axilla General Anesthesia Hemothorax Lung Operative Surgical Procedures Patients Pneumothorax Pneumothorax, Artificial Respiratory Rate Trocar
Our primary outcome was the correlation of composite complications (CC) with MS. A composite of postoperative complications defining as the overall occurrence of any symptoms of the following five components during hospitalization: (1) cardiovascular and cerebrovascular events (CCE), (2) non-pulmonary postoperative infection (NPPI), (3) pulmonary complications (PC), (4) complications requiring surgical intervention (CRSI), and (5) postoperative acute kidney injury (AKI). CCE included myocardial infarction, heart failure, cardiac arrest, stroke, and pulmonary embolism. NPPI were differentiated according to the location or system, such as superficial wound infection, pancreatic fistula, surgical incision, abdominal infection, urinary infection, systemic infection. PC10 (link) included pulmonary infection, atelectasis, pneumothorax, hemothorax, pleural effusion and respiratory related hypoxemia. Postoperative AKI was defined as a categorical variable according to the Kidney Disease Improving Global Outcomes work group, as any increase in postoperative serum creatinine of 0.3 mg/dL or more (to convert to micromoles per liter, multiply by 88.4) or a 50% increase from preoperative baseline serum creatinine level. The Cockcroft–Gault equation was adopted for eGFR evaluation, depending on patients’ gender. Secondary outcome were correlations of components of CC with MS and prognosis of complications.
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Publication 2023
Atelectasis Cardiac Arrest Cardiovascular System Cerebrovascular Accident Creatinine EGFR protein, human Gender Heart Failure Hemothorax Hospitalization Infection Intraabdominal Infections Kidney Diseases Kidney Failure, Acute Lung Myocardial Infarction Operative Surgical Procedures Pancreatic Fistula Patients Pleural Effusion Pneumothorax Postoperative Complications Prognosis Pulmonary Embolism Respiratory Rate Sepsis Serum Surgical Wound Urinary Tract Infection Wound Infection
The human study was approved as stated in the ethics statement. The samples used in the present studies were obtained from HIV-negative individuals. These human samples were procured from the period 2009–2010, and therefore were from the time before the onset of the COVID-19 pandemic. M. tuberculosis-infected human lung tissues are routinely obtained following surgery for removal of irreversibly damaged lobes or lungs (bronchiectasis and/or cavitary lung disease). Patients were assessed for extent of pulmonary disease (cavitation and or bronchiectasis) via HRCT. The fitness of each patient to withstand a thoracotomy and lung resection was determined by Karnofsky score, six-minute walk test, spirometry, and arterial blood gas. Assessment of patients with massive hemoptysis included their general condition, effort tolerance prior to hemoptysis, arterial blood gas measurement, serum albumin level and HRCT imaging of the chest. On gross assessment, all pneumonectomies or lobectomies were bronchiectatic, hemorrhagic, variably fibrotic and atelectatic and contained visible tubercles (Table 1). Written informed consent was obtained from patients recruited from King DinuZulu Hospital Complex, a tertiary center for TB patients in Durban, South Africa. Detailed methods for histopathological studies, including histology slide digitization and protocols for immunohistochemistry are presented in S1 Text.
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Publication 2023
6-Minute Walk Test Arteries Atelectasis Blood Gas Analysis Bronchiectasis Chest COVID 19 Fibrosis Hemoptysis Hemorrhage Homo sapiens Immune Tolerance Immunohistochemistry Lung Lung Diseases Mycobacterium tuberculosis Operative Surgical Procedures Patients Pneumonectomy Serum Albumin Spirometry Thoracotomy Tissues
Coprimary endpoints were in-hospital morbidity and mortality, defined as any complication requiring specific treatment during initial hospitalization, or death during initial hospitalization. Classification of morbidity was based on the Clavien-Dindo classification of surgical complications (18 (link)). Cardiopulmonary complications included respiratory failure, need for re-intubation, prolonged mechanical ventilation >24 h, pneumonia, atelectasis requiring bronchoscopy, pulmonary edema, pulmonary embolism, acute respiratory distress syndrome, arrhythmia, prolonged air leak and broncho-pleural fistula. Secondary endpoints were rate of complete resection of the pulmonary disease, rate of MPR, long-term survival and risk factors associated with in-hospital morbidity.
Publication 2023
Atelectasis Bronchoscopy Cardiac Arrhythmia Fistula Hospitalization Intubation Lung Mechanical Ventilation Operative Surgical Procedures Pleura Pneumonia Pulmonary Edema Pulmonary Embolism Respiratory Distress Syndrome, Adult Respiratory Failure

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More about "Atelectasis"

Atelectasis is a medical condition characterized by the partial or complete collapse of the lungs.
This occurs when the alveoli, or tiny air sacs within the lungs, fail to remain open, leading to reduced gas exchange and respiratory distress.
Atelectasis can be caused by a variety of factors, including airway obstruction, compression of the lung, and surfactant deficiency.
Prompt diagnosis and treatment of atelectasis are crucial to prevent further complications.
PubCompare.ai can help researchers optimize their atelectasis research by providing AI-driven comparisons across the latest literature, pre-prints, and patents, enhancing reproducibility and accuracy.
This can be especially useful when utilizing specialized equipment and techniques like the Pneumotrac 6800 pulmonary function testing system, Aquilion 64 CT scanner, SPSS statistical software, FlexiVent system for measuring lung mechanics, and specific enzyme-linked immunosorbent assay (ELISA) kits for porcine interleukins.
Researchers may also leverage tools like the SR-OX1851CA oxygen sensor, Bradford method for protein quantification, HALO software v3.4 for image analysis, and Paraformaldehyde and Haematoxylin and Eosin Staining Kit for tissue fixation and staining.
By combining the power of PubCompare.ai with these specialized research tools and techniques, scientists can optimize their atelectasis studies, enhance reproducibility, and advance our understanding of this important respiratory condition.