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Dimercaprol

Dimercaprol is a chelating agent used to treat heavy metal poisoning, particularly arsenic, lead, and mercury poisoning.
It works by binding to the heavy metals and facilitating their excretion from the body.
Dimercaprol is administed by intramuscular injection and can cause side effects such as nausea, vomiting, and fever.
It is an important tool in the management of acute heavy metal toxicity, though its use requires careful monitoring by healthcare professionals.
Reasearchers can use PubCompare.ai to optimize their Dimercaprol studies by accessing the best protocols and products from the scientific literature, preprints, and patents, improving reproducibility and accuracy of their work.

Most cited protocols related to «Dimercaprol»

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Publication 2020
Antibodies Antigens Biohazards Biological Assay Biological Markers Buffers Child Clinical Laboratory Services Communicable Diseases COVID 19 Cross Reactions Diagnosis Dimercaprol DNA, Complementary DNA, Double-Stranded Donors Emergencies Enzymes Fluorescent Dyes Food Gene Amplification Gene Products, env Genes Genes, vif Genes, Viral Genome Gold Health Personnel Human Body Hydrolysis Hypersensitivity Immunoglobulins Infection Membrane Proteins Nasopharynx Nose Nucleic Acids Nucleocapsid Nucleocapsid Proteins Oligonucleotide Primers Oropharynxs Pandemics Parts, Body Patients Pharmaceutical Preparations Pharynx Plasma Quarantine Real-Time Polymerase Chain Reaction Rectum Respiratory Rate Respiratory System Reverse Transcriptase Polymerase Chain Reaction Reverse Transcription RNA, recombinant RNA-Directed RNA Polymerase RNase P Safety Saline Solution Sarbecovirus SARS-CoV-2 Severe acute respiratory syndrome-related coronavirus Specimen Collection spike protein, SARS-CoV-2 Sputum Test Preparation Tests, Serologic Viral Genome Virus Virus Diseases

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Publication 2020
COVID 19 Dimercaprol Freezing Genome Hypersensitivity Nasopharynx Patients RNA, Viral SARS-CoV-2 Strains trizol
Memory CD8 T cells, harvested from mice 35–45 days post-infection, were negatively selected from bronchoalveolar lavage (BAL) using Miltenyi CD8α T Cell Isolation Kit II. Influenza NP366–374/Db+ tetramer quantification allowed for equal numbers of antigen-specific cells to be i.t. transferred from donor mice to naïve recipient mice. No more than 1.5×105 antigen-specific airway CD8 TRM cells were transferred per recipient to approximate physiological numbers of airway TRM cells. Antibodies used for flow cytometry and cell sorting were BioLegend CD62L [MEL-14], CD8α [53–6.7], CXCR3 [CXCR-173]; eBioscience CD11a [M17/4], CD44 [IM7]; and BD Biosciences CD3ε [145-2C11], CD45.2 [104], CD90.2 [53–2.1], IFN-γ [XMG1.2]. Intravital staining was performed immediately before mouse euthanasia and tissue harvest as previously described (15 (link)). Briefly, to identify T cells resident in various tissues, including the lung parenchyma, 1.5µg of fluorophore-conjugated α-CD3ε antibody in 200λ 1× PBS was intravenously injected into the tail vein of mice; five minutes post-injection, mice were euthanized with Avertin (2,2,2-Tribromoethanol - Sigma) and exsanguinated prior to harvest of BAL and other tissues. Staining for intracellular cytokines was performed as previously described following stimulation in the presence of Brefeldin A for the indicated periods of time (25 (link)). To study cell proliferation, mice were given an intraperitoneal bolus of BrdU (0.8mg) at the time of infection and maintained on BrdU drinking water (0.8mg/mL) until harvest. BrdU incorporation was measured using the BrdU Flow kit (BD Biosciences) following tetramer and antibody staining. Samples were run on a BD Biosciences Canto II or LSR II flow cytometer and analyzed with FlowJo software. Sorting was performed on an Influx or Aria II cell sorter (BD Biosciences).
Publication 2015
Antibodies Antigens Brefeldin A Bromodeoxyuridine CD3E protein, human CD8 Antigens CD44 protein, human Cell Proliferation Cells CXCR3 protein, human Cytokine Dimercaprol Euthanasia Flow Cytometry Immunoglobulins Infection Influenza Interferon Type II Lung Memory T Cells Mice, House Mus NRG1 protein, human physiology Protoplasm SELL protein, human T-Lymphocyte Tail Tetrameres Thy-1 Antigens Tissue Donors Tissue Harvesting Tissues TRAIL-R 1MAB tribromoethanol Veins
Male, C57Bl/6 mice aged 8 weeks were given 20% ethanol (EtOH) in their drinking water along with ad lib access to standard mouse chow. Mice were acclimated to EtOH by increasing the EtOH concentration in 5% increments from 0% to the target 20% (w/v) over the course of two weeks then maintaining the 20% concentration for an additional ten weeks. This regimen replicates blood alcohol levels following chronic EtOH ingestion in human subjects (Jerrells et al., 2007 (link), Song et al., 2002 (link)). In preliminary studies, blood alcohol concentrations were measured with a rapid, high-performance plasma alcohol analyzer (Analox Instruments Ltd., London, UK) according to the manufacturer's protocol. These analyses confirmed that this ethanol regimen produced clinically relevant elevations in blood alcohol concentration (0.12% ± 0.03, n=24). During the final week of EtOH treatment, all mice were gavaged daily for 7 days with either rosiglitazone (10 mg/kg/day in 100 μl methylcellulose vehicle) or vehicle alone as previously reported (Hwang et al., 2007 (link), Nisbet et al., 2010 (link)). Selected mice were treated with Escherichia coli lipopolysaccharide (Sigma-Aldrich, St. Louis MO, 2 mg/kg IP at 6 and 3 hours prior to sacrifice) as an inflammatory stimulus to promote pulmonary dysfunction. The timing of these studies was based on recent reports showing significant LPS-mediated increases in lung leak in C57Bl/6 mice 6-hours after LPS administration (Rojas et al., 2005 (link)). After sacrifice, blood was collected via cardiac puncture, and bronchoalveolar lavage (BAL) performed via tracheotomy. Protein concentration in the BAL fluid was measured using the bicinchoninic acid (BCA) assay (Thermo Scientific, Rockford IL), and values were corrected for dilution based on the ratio of blood to BAL urea nitrogen, assayed with a commercially available kit (Pointe Scientific, Inc., Canton MI) as previously reported (Rennard et al., 1986 (link)). Lung tissue was collected for subsequent analyses as described below following perfusion of the pulmonary artery with sterile phosphate buffered saline (PBS, Cellgro, Manassas, VA). All animal studies were approved by the Atlanta Veteran's Affairs Medical Center Animal Care and Use Committee.
Publication 2011
Animals bicinchoninic acid BLOOD Bronchoalveolar Lavage Fluid Dimercaprol Escherichia coli Ethanol Heart Inflammation Lung Males Methylcellulose Mice, Inbred C57BL Mus Nitrogen Perfusion Phosphates Plasma Proteins Pulmonary Artery Punctures Rosiglitazone Saline Solution Sterility, Reproductive Technique, Dilution Tissues Tracheotomy Treatment Protocols Urea

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Publication 2018
Animals bioplex Body Weight BRD4 protein, human Bronchoalveolar Lavage Fluid Chemokine Cytokine Dimercaprol Food Formalin Freezing Gene Expression Immunoassay Lung Males Mice, Inbred C57BL Mus Paraffin Pathogenicity Phosphates Poly I-C Reverse Transcriptase Polymerase Chain Reaction Saline Solution Syringes Trachea

Most recents protocols related to «Dimercaprol»

We performed bronchoalveolar lavage (BAL) in mice to analyze the lung inflammatory response and sacrificed them on days 14 and 21 to analyze the lung tissues. For BAL, the mice were anesthetized, a catheter was intubated into the upper respiratory tract, and 0.9 mL of PBS was administered twice to obtain the BAL fluid (BALF). Cells obtained from BALF were stained with Diff-Quik (Systmex, Kobe, Japan), and the numbers of macrophages, neutrophils, eosinophils, and lymphocytes within the sample were counted. Lung tissue samples were fixed and embedded in paraffin and stained with H&E, MT, terminal deoxynucleotidyl transferase dUTP nick-end labeling (TUNEL), and periodic acid-Schiff (PAS) stains. Inflammation, fibrosis, apoptosis, and mucus production in the lungs were semi-quantified and scored according to previous studies [43 (link)–46 (link)].
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Publication 2023
Apoptosis Bronchoalveolar Lavage Fluid Catheters Cells deoxyuridine triphosphate Dimercaprol DNA Nucleotidylexotransferase Eosinophil Fibrosis Inflammation Lung Lymphocyte Macrophage Mucus Mus Neutrophil Paraffin Embedding Periodic Acid Pneumonia Respiratory System Staining Tissues
Mice were euthanized on days 3 and 5 after infection to evaluate the lung inflammatory process induced by IAV infection. The mice were anesthetized, and bronchoalveolar lavage (BAL) from both lungs was harvested by washing the lungs three times with two 1-ml aliquots of cold PBS. After centrifugation of BAL (1500 rpm for 5 minutes), the pellet was used for total and differential leukocyte counts and cell death analysis by flow cytometry. The supernatant of the centrifuged BAL was used for cytokine/chemokine and total protein measurements and cell death analysis by LDH quantification. Total leukocytes (diluted in Turk’s 2% acetic acid solution) were counted using a Neubauer chamber. Differential cell counts were performed in cytospins (Cytospin3; centrifugation of 350 x g for 5 minutes at room temperature) and stained by the May-Grünwald-Giemsa method. The levels of cytokines and chemokines were assessed by ELISA. The total protein concentration in the BAL fluid was measured using a BCA protein assay kit (Thermo Scientific).
After BAL harvesting, the lungs were perfused with 5 ml of PBS to remove the circulating blood. Lungs were then collected and macerated in 750 µL of cold phosphate buffer containing protease inhibitor cocktail (Roche Applied Science, Mannheim, Germany). Homogenates were stored at −80°C for western blot analysis.
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Publication 2023
Acetic Acid Biological Assay BLOOD Bronchoalveolar Lavage Bronchoalveolar Lavage Fluid Buffers Cell Death Centrifugation Chemokine Cold Temperature Cytokine Dimercaprol Enzyme-Linked Immunosorbent Assay Flow Cytometry Infection Leukocyte Counts, Differential Leukocytes Lung Mus Phosphates Pneumonia Protease Inhibitors Proteins Western Blot
The purpose of these studies was to establish human-simulated regimens of cefepime and taniborbactam in the murine pneumonia model equivalent to clinical doses of 2 and 0.5 g, respectively, administered every 8 h as 4 h infusions based on the unbound (free) plasma exposures. Following the selection and the confirmation of the cefepime and taniborbactam human-simulated regimens, additional studies were conducted to quantify the plasma and bronchopulmonary exposures achieved following the administration of the taniborbactam dosages utilized in the dose-ranging studies in combination with the cefepime human-simulated regimen.
Cefepime pharmacokinetic data in healthy adult volunteers collected in Phase I studies upon taniborbactam co-administration8 (link) and cefepime and taniborbactam pharmacokinetic parameters in the murine model were utilized for simulation. Cefepime protein-binding percentages utilized in the simulations were 20% and 0% in humans and mice, respectively,9 (link) while taniborbactam protein-binding percentages were 0% and 19.4% in humans10 and mice,11 (link) respectively.
Infected mice (6–10 groups of six mice each) received the estimated human-simulated regimen of cefepime as monotherapy or in combination with that of taniborbactam or fractions of the established taniborbactam human-simulated regimen: 1.56% or 12.5% of the taniborbactam human-simulated regimen doses (equivalent to 7.8 or 62.5 mg every 8 h as 4 h infusion, respectively).
At 6–10 different timepoints, groups of six mice were euthanized by CO2 asphyxiation followed by blood collection via intracardiac puncture and cervical dislocation. Following blood collection, but prior to cervical dislocation, bronchoalveolar lavage (BAL) fluid was collected from the mice at the same timepoints using methods previously described.12 Formic acid in water (2% v/v) was added to BAL samples (equal parts) prior to freezing. All sample tubes were stored at −80°C until drug and urea concentration determination. Cefepime, taniborbactam and urea concentrations in plasma and BAL fluid were assayed by either Keystone Bioanalytical, Inc. (North Wales, PA, USA) or by Venatorx Pharmaceuticals, Inc. using qualified LC-MS/MS methods.
Cefepime and taniborbactam concentrations in the epithelial lining fluid (ELF) were estimated by correcting the drug concentration in BAL fluid for the dilution with NS during lavage using the following formula13 (link):
CompoundELF = CompoundBAL × (Ureaplasma/UreaBAL), where CompoundBAL is the measured concentration of either cefepime or taniborbactam in the BAL fluid sample and Ureaplasma and UreaBAL are the concentrations of urea in paired plasma and BAL fluid samples from each mouse, respectively.
Statistical outliers for each respective analyte were removed by the IQR method. A pharmacokinetic model was fitted to the plasma and ELF concentrations of each of cefepime and taniborbactam and the best-fit estimate parameters were determined by the non-linear least-squares techniques (WinNonlin, Version 8.3, Pharsight Corp., Mountain View, CA, USA). Compartment model selection was based on visual inspection of the fit and comparison of model diagnostics.
These parameters were utilized to estimate the plasma and ELF exposures and the ELF penetration ratios as the ratio of the ELF AUC0–24 to unbound (free) plasma AUC0–24.
Publication 2023
Adult Asphyxia BLOOD Bronchoalveolar Lavage Fluid Cefepime Diagnosis Dimercaprol Drug Kinetics formic acid Healthy Volunteers Homo sapiens Joint Dislocations Mice, Laboratory Mus Neck Pharmaceutical Preparations Plasma Pneumonia Punctures Tandem Mass Spectrometry taniborbactam Technique, Dilution Treatment Protocols Urea Ureaplasma
Whole-blood sampling was conducted before dose 1 and at the following timepoints before and after dose 3: pre-dose (0 h; immediately before start of infusion), 2 (end of infusion), 2.25, 2.5, 3, 4, 6 and 8 h in K2EDTA-containing vacutainers (Becton Dickinson and Company, Franklin Lakes, NJ, USA). Samples were centrifuged at 1500 × g for 10 min at 4°C and separated plasma was stored at −80°C until concentration determination.
All subjects were randomly assigned to undergo a single bronchoscopy with bronchoalveolar lavage (BAL) at 2, 4, 6 or 8 h after start of the third drug infusion (five subjects per timepoint). Subjects fasted for at least 6 h prior to the procedure and were then prepared for bronchoscopy with aerosolized lidocaine in the nares and oropharynx and 2% lidocaine jelly in the nasal passageway within 30 min of the procedure. The subjects underwent conscious sedation with IV injection of midazolam and fentanyl (per SurgiCenter standard of care) as needed. Each BAL was conducted with a fibre-optic bronchoscope (Olympus BF-Q190, Olympus America Inc., Center Valley, PA, USA) into the right middle lobe and utilized four aliquots of sterile 0.9% saline for instillation and aspiration as previously described.15–18 (link) The initial aliquot (50 mL) was discarded and the subsequent three aliquots (50 mL each) were stored on ice immediately after aspiration. The three aliquots were pooled (total volume recorded) and an aliquot obtained for complete cell count and differential. The remaining volume of pooled BAL was immediately centrifuged at 400 × g for 10 min, and the supernatant and cell pellet were separated. Supernatant aliquots were obtained to determine drug and urea concentrations. A blood sample was collected at the time of bronchoscopy to determine the plasma drug and urea concentrations. Water:formic acid (100:2, v/v) was added at a 1:1 ratio to all non-plasma samples to ensure taniborbactam drug stability prior to storage at −80°C until concentration determination.
Publication 2023
A Fibers BLOOD Bronchoscopes Bronchoscopy Cells Conscious Sedation Dimercaprol Eye Fentanyl formic acid Lidocaine Midazolam Nasal Cavity Normal Saline Oropharynxs Pharmaceutical Preparations Plasma Sterility, Reproductive taniborbactam Urea
This study was conducted observationally. Infants were recruited from the Chengdu Women’s and Children’s Central Hospital between January 2019 and December 2020. This study was approved by the Ethics Review Board of Chengdu Women’s and Children’s Central Hospital 2016 (22). Written informed consent was obtained from the guardians of all participants. Included in the study were 30 infants who met the following criteria: 1) aged 1–3 years, 2) wheezing occurrence ≥2 times, 3) inhaled corticosteroids and antibiotics not administrated within one week, and 4) diagnosed with wheezing by a physician specializing in pediatric pulmonology. Of the 30 infants, 15 were found to be atopic. Atopy was defined based on skin prick test evidence (wheal diameter >25% induced by histamine) of sensitivity to ≥1 of 12 aeroallergens (allergen skin prick liquids; Aroger Company, Germany). Additionally, 18 children aged 1–3 years who underwent bronchoscopy due to foreign body aspiration within 24 h of sample collection were used as control subjects. Infants > 36 months of age with congenital heart diseases, immunodeficiency, bronchopulmonary dysplasia, cystic fibrosis, or neuromuscular disorders were excluded. Bronchoalveolar lavage (BAL) was performed using a fiberoptic bronchoscope through the airway via a laryngeal mask. BAL samples were collected from wheezing infants and controls, and centrifuged at 14000 × g for 10 min. The pellets were resuspended in 500 μL of phosphate buffered saline (PBS) and stored at -80°C until DNA extraction.
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Publication 2023
Adrenal Cortex Hormones Allergens Antibiotics Bronchopulmonary Dysplasia Bronchoscopes Bronchoscopy Child Congenital Heart Defects Cystic Fibrosis Dimercaprol Foreign Bodies Histamine Hypersensitivity Immunologic Deficiency Syndromes Infant Laryngeal Masks Legal Guardians Neuromuscular Diseases Pellets, Drug Phosphates Physicians Saline Solution Skin Specimen Collection Test, Skin Woman

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More about "Dimercaprol"

Dimercaprol, also known as BAL (British Anti-Lewisite), is a vital chelating agent employed in the treatment of heavy metal poisoning, particularly arsenic, lead, and mercury toxicity.
This remarkable compound functions by binding to these hazardous metals, facilitating their excretion from the body.
Administered via intramuscular injection, Dimercaprol plays a crucial role in managing acute heavy metal toxicity, though its use requires close monitoring by healthcare professionals to mitigate potential side effects like nausea, vomiting, and fever.
Researchers can leverage powerful tools like PubCompare.ai to optimize their Dimercaprol studies.
This innovative platform empowers scientists to access the best protocols and products from scientific literature, preprints, and patents, enhancing the reproducibility and accuracy of their work.
By integrating insights from related techniques and materials, such as TRIzol for RNA extraction, Qubit 3.0 Fluorometer for nucleic acid quantification, Protease inhibitor cocktail for protein stabilization, BALB/c mice for in vivo studies, DMSO for cryopreservation, FBS for cell culture, RNAlater for RNA stabilization, Infinium MethylationEPIC BeadChip for epigenetic analysis, and DNeasy Blood and Tissue Kit for DNA purification, researchers can unlock new possibilities in their Dimercaprol-focused investigations.
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