Mice were used with Institutional Animal Care and Use Committee approvals. Muc5ac−/− mice were generated previously16 (link). Muc5b−/− and Muc5bTg mice were generated here. Muc5b protein was assessed immunohistochemically using rabbit polyclonal antisera. Ciliary beat, MCC, and transport were assessed as described previously. Lung function was measured using a head-out plethysmograph and a flexiVent (Scireq, Montreal, Quebec, Canada), and blood oxygen was assessed using a pulse oximeter. Otitis media was assessed by visual otoscopy and middle ear lavage (MEL). Pulmonary inflammation was assessed by histology and lung lavage. Lavaged leukocytes were identified by light microscopy and flow cytometry. Neutrophils, macrophages, MHC-II, and apoptotic cells, were detected using commercially available Ab’S and reagents. S. aureus was administered by 10 μl intranasal or 50 μl intratracheal inocula at 107-108 CFU/animal. Bacteria and bacterial DNA were isolated from MEL, lung homogenates, and lung lavage pellets. Isolated colonies were phylotyped by 16S rRNA and mecA sequencing. Kaplan-Meier (1f and 3h , l ), regression (1e and 2f ), one-sided t-test (1g-i , k , l ; 2b-e , g ; 3b , c , f , g , j , k , and 4c , d , f , g , i , j ), and one-way ANOVA (3i and 4a , h , j , l ) with appropriate corrections for multiple comparisons, unequal variances, and non-Gaussian distribution were carried out using GraphPad Prism v5.04 (GraphPad Software, Inc., La Jolla, CA). Full methods are found in Supplementary Information.
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Otitis Media
Otitis Media
Otits Media: An inflammation of the middle ear, often caused by bacterial or viral infection.
Symptoms may include ear pain, fever, and hearing loss.
Prompt diagnosis and treatment are important to prevent complications such as mastoiditis or hearing impairment.
Effective management typically involves antibiotic therapy, pain relief, and, in some cases, surgical intervention.
This MeSH term provides a comprehensive overview of the condition, its causes, symptoms, and treatment approaches to support accurate research and clinical practice.
Symptoms may include ear pain, fever, and hearing loss.
Prompt diagnosis and treatment are important to prevent complications such as mastoiditis or hearing impairment.
Effective management typically involves antibiotic therapy, pain relief, and, in some cases, surgical intervention.
This MeSH term provides a comprehensive overview of the condition, its causes, symptoms, and treatment approaches to support accurate research and clinical practice.
Most cited protocols related to «Otitis Media»
5'-N-methylcarboxamideadenosine
Animals
Apoptosis
Bacteria
Blood
Bronchoalveolar Lavage
Cells
DNA, Bacterial
Eyelashes
Flow Cytometry
Head
Immune Sera
Institutional Animal Care and Use Committees
Leukocytes
Light Microscopy
Lung
Macrophage
Middle Ear
MUC5AC protein, human
MUC5B protein, human
Mus
neuro-oncological ventral antigen 2, human
Neutrophil
Otitis Media
Otoscopy
Oxygen
Pellets, Drug
Plethysmography
Pneumonia
prisma
Proteins
Pulse Rate
Rabbits
Respiratory Physiology
RNA, Ribosomal, 16S
Staphylococcus aureus
Study subjects included patients 5 years of age or older who presented in outpatient clinics or hospitals with acute, undifferentiated, febrile illness (greater than or equal to 38°C for 7 days duration or less) along with one or more of the following symptoms: headache, muscle, ocular and/or joint pain, generalized fatigue, cough, nausea, vomiting, sore throat, rhinorrhea, difficulty breathing, diarrhea, jaundice, dizziness, disorientation, stiff neck, or bleeding manifestations. Children younger than five years of age were included if they presented with hemorrhagic manifestations indicative of dengue hemorrhagic fever (DHF), including epistaxis, pleural effusion, platelets less than 100,000/ml, petechiae, or bloody stool or vomit. Exclusion criteria included fever in excess of seven days or an identifiable focus of infection, such as sinusitis, pneumonia, acute otitis media, or acute urinary tract infection. Demographic data, medical history, and clinical features for each patient were obtained using a standard questionnaire. In malaria-endemic regions if malaria was suspected, capillary blood from febrile patients was screened for Plasmodium spp. by clinic or hospital personnel according to routine diagnostic procedures at each site. Peripheral blood samples were screened by microscopic analysis of stained thick smear slides. In some sites, owing to the possibility of arbovirus co-infection, malaria-positive patients were subsequently invited to participate in the NMRCD study, with malaria results recorded along with symptoms and demographic information.
During the acute phase of illness blood samples were obtained from each patient, and when possible, convalescent samples were obtained 10 days to 4 weeks later for serological studies. For patients older than 10 years of age, up to 15 mL of blood was collected, and for patients younger than 10 years of age, up to 7 mL of blood was collected. Trained phlebotomists collected blood samples via arm venipuncture using standard methods and universal precautions.
During the acute phase of illness blood samples were obtained from each patient, and when possible, convalescent samples were obtained 10 days to 4 weeks later for serological studies. For patients older than 10 years of age, up to 15 mL of blood was collected, and for patients younger than 10 years of age, up to 7 mL of blood was collected. Trained phlebotomists collected blood samples via arm venipuncture using standard methods and universal precautions.
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Arbovirus Infections
Arthralgia
Blood
Blood Platelets
Capillaries
Child
Cough
Diagnostic Tests, Routine
Diarrhea
Epistaxis
Eye
Fatigue
Feces
Fever
Focal Infection
Headache
Hemorrhage
Icterus
Malaria
Microscopy
Muscle Tissue
Nausea
Neck
Otitis Media
Patients
Petechiae
Phlebotomy
Plasmodium
Pleural Effusion
Pneumonia
Rhinorrhea
Severe Dengue
Sinusitis
Sore Throat
Tests, Serologic
Universal Precautions
Urinary Tract Infection
Vomiting
Youth
Functional Laterality
isononanoyl oxybenzene sulfonate
Nose
Otitis Media
Patients
Symptom Evaluation
Adenoids
Atmospheric Pressure
Ciliary Motility Disorders
Cleft Palate
Cystic Fibrosis
Diagnosis
Down Syndrome
Ear
Ethics Committees, Research
Head
Hypertrophy
Immunologic Deficiency Syndromes
Malignant Neoplasms
Middle Ear
Nasal Cavity
Nasal Polyps
Nasopharynx
Neck
NR1D1 protein, human
Operative Surgical Procedures
Otitis Media
Otitis Media with Effusion
Otoscopy
Outpatients
Palatine Tonsil
Patients
Physical Examination
Pressure
Radiotherapy
Sinusitis
Syndrome
Tympanic Membrane
Upper Respiratory Infections
Voice Disorders
A cross sectional study of a quasi-random sample of 327 pharmacies was conducted in Riyadh, the capital of Saudi Arabia with about 5 million habitants, in November 2010. The sample was intended to be representative of all Riyadh pharmacies. The sample was stratified by the five regions of Riyadh (Eastern, Western, Northern, Southern, Central) regardless of the pharmacy's size, deprivation level of the area. A convenience sample of streets was chosen from each region and a complete enumeration of all pharmacies in each street was considered. Each pharmacy was visited once by two investigators (total of 6 male physicians and 2 male medical students participated) who simulated having a brother/sister with a predetermined clinical scenario according to simulated-client method pharmacy surveys [19 (link),20 ]. The scenarios included sore throat, acute bronchitis, otitis media, acute sinusitis, diarrhea, and urinary tract infection in a pregnant (childbearing age) women. The investigators concealed their identity and the study objective of their visits from the approached pharmacists who were identified by their licenses and pictures on the front wall of the pharmacy. The clinical scenarios were presented as follow; one investigator talked to the pharmacist while the other observed the discussion and memorized the responses. Immediately after leaving the pharmacy, both investigators completed a standardized data form that included information about the location of the pharmacy, antibiotics dispensing practice, pharmacists' inquiries about associated symptoms (e.g. fever/shortness of breath/abdominal pain/loin pain), allergy history, pregnancy status in case of UTI; type of antibiotic, if dispensed; and information about drug interactions if this was provided by the pharmacist.
Two sessions of standardization took place in the presence of all actors. Each group rehearsed simulating all the clinical scenarios to the senior investigator using the same complaints (terminology and statements). Rehearsal was repeated to ensure reliability of the simulated scenario. The actors used lay language and refrained from using any jargon.
Only the following clinical information was presented to the pharmacist. Any additional information was only provided if the pharmacist inquired about it. The sore throat scenario: a healthy young male relative was described as having difficulties in swallowing with slight fever of 24 hours duration. Acute bronchitis scenario: an elderly man relative was described as having sore throat, cough with sputum production. Additional information provided upon request was the patient had multiple comorbid conditions and was using warfarin.
Acute sinusitis scenario: a young male relative was described as having running nose, facial pain, and headache. Otitis media scenario: a 5-year-old relative child was described as having ear pain and discharge. Urinary tract infection scenario: a childbearing female relative was described as having dysuria and urinary frequency. Diarrhea scenario: a young male relative was described with loose bowel motion for one day.
Three levels of demand were used sequentially until an antibiotic was dispensed or denied [4 (link)]: 1) Can I have something to relieve my symptoms?: 2) Can I have something stronger? 3) I would like to have an antibiotic.
Data are presented as percentage of the pharmacists' responses toward the simulated clinical scenarios.
The study was approved by the Institutional Review Board at King Fahd Medical City. Deception and incomplete disclosure to study subjects (pharmacists) were considered ethically acceptable because this was a minimal risk study and it could not have been performed with complete disclosure of investigator entity. Data were kept anonymous.
Two sessions of standardization took place in the presence of all actors. Each group rehearsed simulating all the clinical scenarios to the senior investigator using the same complaints (terminology and statements). Rehearsal was repeated to ensure reliability of the simulated scenario. The actors used lay language and refrained from using any jargon.
Only the following clinical information was presented to the pharmacist. Any additional information was only provided if the pharmacist inquired about it. The sore throat scenario: a healthy young male relative was described as having difficulties in swallowing with slight fever of 24 hours duration. Acute bronchitis scenario: an elderly man relative was described as having sore throat, cough with sputum production. Additional information provided upon request was the patient had multiple comorbid conditions and was using warfarin.
Acute sinusitis scenario: a young male relative was described as having running nose, facial pain, and headache. Otitis media scenario: a 5-year-old relative child was described as having ear pain and discharge. Urinary tract infection scenario: a childbearing female relative was described as having dysuria and urinary frequency. Diarrhea scenario: a young male relative was described with loose bowel motion for one day.
Three levels of demand were used sequentially until an antibiotic was dispensed or denied [4 (link)]: 1) Can I have something to relieve my symptoms?: 2) Can I have something stronger? 3) I would like to have an antibiotic.
Data are presented as percentage of the pharmacists' responses toward the simulated clinical scenarios.
The study was approved by the Institutional Review Board at King Fahd Medical City. Deception and incomplete disclosure to study subjects (pharmacists) were considered ethically acceptable because this was a minimal risk study and it could not have been performed with complete disclosure of investigator entity. Data were kept anonymous.
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Abdominal Pain
Aged
Antibiotics
Bronchitis
Brothers
Child
Clinical Investigators
Cough
Diarrhea
Drug Interactions
Dyspnea
Dysuria
Earache
Ethics Committees, Research
Facial Pain
Fever
Headache
Hypersensitivity
Males
Otitis Media
Patient Discharge
Patients
Physicians
Pregnancy
Rhinorrhea
Sinusitis
Sore Throat
Sputum
Students, Medical
Urinary Tract Infection
Urine
Warfarin
Woman
Most recents protocols related to «Otitis Media»
A total of 18 healthy subjects (8 men and 10 women, 23.44 ± 2.33 years) were included in this study. All participants complied with the following requirements: no history of seizures, cardiovascular disease, hypertension, severe head and neck illnesses, ingestion of alcohol within the previous 48 h, ingestion of central excitatory or inhibitory drugs, damage to the external auditory canal or tympanic membrane, or otitis media. The study was approved by the medical ethics review committee at Tianjin University. All subjects gave written informed consent and received payment for participation.
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Cardiovascular Diseases
External Auditory Canals
Head
Healthy Volunteers
High Blood Pressures
Neck
Otitis Media
Pharmaceutical Preparations
Psychological Inhibition
Seizures
Tympanic Membrane
Woman
The key points of diagnosis of OME were as follows: (1) ear symptoms and signs without acute middle ear infection; (2) hearing loss, self-hearing enhancement, or hearing changes with posture changes occuring; (3) a tympanogram showed a “B” or “C” curve; (4) pure tone/behavioral audiometry indicating that the affected ear had mild to moderate conductive hearing loss; and (5) patients who showed tympanic effusion during the ear endoscopy before the operation which was confirmed intraoperatively. Patients diagnosed with OME according to the above criteria were included in the AH + OME group. Pediatric patients without OME were included in the AH group.
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Audiometry, Pure-Tone
Conductive Hearing Loss
Hearing Impairment
Otitis Media
Otoscopy
Patients
Tympanic Cavity
Using ICD10/ICD9 codes and self-reports, individuals with chronic otitis media, salpingitis, mastoiditis, otosclerosis, Meniere’s disease, deafness, labyrinthitis, conductive HL, ototoxic HL, head, ear or neck trauma, stroke, encephalitis, meningitis, or facial nerve disorders were excluded from the analysis. Additionally, individuals with unilateral/bilateral sensorineural or mixed conductive HL were excluded if they were diagnosed <55 years-of-age or did not have an age-of-diagnosis (Supplementary Table S2 ).
Four different case status were determined based on the response to a touchscreen questionnaire: 1)H-aid self-reported hearing aid use (f.3393: “Do you use a hearing aid most of the time?“); 2) H-diff self-reported hearing difficulty (f.2247: “Do you have any difficulty with your hearing?”); 3) H-noise self-reported hearing difficulty with background noise (f.2257: “Do you find it difficult to follow a conversation if there is background noise, e.g., TV, radio, children playing)?”; and 4) H-both individuals with both H-diff and H-noise. Individuals who provided inconsistent answers for H-aid, H-diff, or H-noise (e.g., reported H-diff on the first visit but not the second visit), or did not provide definite answers, (e.g., answered “Do not know”) were excluded (Supplementary Table S1 ). In the analysis age is defined for cases, when they answered “Yes” to a specific ARHL question for the first time during the assessments. We used a common set of controls without any hearing-related phenotypes. For the controls, age at last assessment was used in the analysis.
Information on the number of individuals available for analysis for each phenotype (H-aid, H-diff, H-noise, and H-both) as well as information on the age distribution among males and females can be found inSupplementary Table S3 .
Four different case status were determined based on the response to a touchscreen questionnaire: 1)
Information on the number of individuals available for analysis for each phenotype (H-aid, H-diff, H-noise, and H-both) as well as information on the age distribution among males and females can be found in
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Cerebrovascular Accident
Child
Diagnosis
Electric Conductivity
Encephalitis
Facial Nerve Diseases
Females
Head
Hearing Aids
Labyrinth Diseases
Males
Mastoiditis
Meniere Disease
Meningitis
Neck Injuries
Otitis Media
Otosclerosis
Ototoxicity
Phenotype
Salpingitis
OAE (DPOAEs) was measured in both ears (excluding ears with middle ear pathology, eg, otitis media) on the day of admission (day 1), days 2 and 3, and between days 5 and 7 and 10 and 14. Patients were followed up in the outpatient clinic at least 30 days after discharge. OAEs were recorded using the Interacoustics Titan DPOAE 440 module. Eleven frequencies were measured in each ear: 1, 1.5, 2, 3, 4, 5, 6, 7, 8, 9, and 10 kHz. The frequency ratio (f2/f1) was fixed at 1.22. OAE was performed with patients lying down with a 30° tilted head position. Frequencies were categorized as low (1, 1.5, 2 kHz), mid (3, 4, 5 kHz), mid-high (6, 7, 8 kHz), and high (9, 10 kHz). The emission threshold level (ETL) in each frequency category was calculated as the mean of the included frequencies.
A signal-to-noise ratio (SNR) of +3 dB was applied to the noise floor in low to mid-high frequencies and +6 dB in high frequencies. The distribution of final noise floor, and thus border of OAE detection, within each frequency category was low −10 dB, mid −15 dB, mid-high −13 dB, high −16 dB [28 (link)].
A signal-to-noise ratio (SNR) of +3 dB was applied to the noise floor in low to mid-high frequencies and +6 dB in high frequencies. The distribution of final noise floor, and thus border of OAE detection, within each frequency category was low −10 dB, mid −15 dB, mid-high −13 dB, high −16 dB [28 (link)].
Head
Middle Ear
Otitis Media
Patient Discharge
Patients
Participants were from an individual patient data (IPD) database on antibiotic prescribing for RTIs (acute sore throat, acute cough, and otitis media) in a community setting (Box 1 ). Full details of the IPD database have been reported elsewhere.18 (link),19 For the present study, participants in the IPD database who completed symptom diaries (n = 9103) were included. Study and patient-level characteristics are presented in Supplementary Table S1.20 (link)–31 (link)
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Antibiotics
Cough
Otitis Media
Patients
Respiratory Tract Infections
Sore Throat
Top products related to «Otitis Media»
Sourced in United Kingdom, Germany, United States, Canada, Italy, Australia
Blood agar plates are a type of microbiological culture medium used for the isolation and identification of bacteria. They consist of a solid agar base enriched with defibrinated sheep or horse blood. The blood agar supports the growth of a wide range of bacteria and helps in the identification of different bacterial species based on their hemolytic properties.
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Yeast extract is a common laboratory and food ingredient. It is produced by autolysis of baker's yeast. Yeast extract contains a range of nutrients, including amino acids, vitamins, and minerals. It is used to provide a source of these nutrients in various applications.
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CBA/CaJ mice are a laboratory mouse strain commonly used in biomedical research. They are characterized by a wild-type coat color and are considered a general-purpose strain suitable for a variety of applications.
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Nicotinamide adenine dinucleotide (NAD) is a coenzyme found in all living cells. It is involved in numerous redox reactions and plays a crucial role in energy metabolism. NAD is an essential cofactor for various enzymes that catalyze oxidation-reduction reactions, particularly in the process of cellular respiration.
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More about "Otitis Media"
Otitis media, or middle ear inflammation, is a common condition that often arises from bacterial or viral infections.
Symptoms may include ear pain, fever, and hearing loss.
Prompt diagnosis and treatment are crucial to prevent complications like mastoiditis or permanent hearing impairment.
Effective management typically involves antibiotic therapy, pain relief, and in some cases, surgical intervention.
When diagnosing otitis media, clinicians may utilize various laboratory techniques, such as blood agar plates, chocolate agar, and MSwab samples.
These methods can help identify the causative pathogens, which may include Streptococcus pneumoniae, Haemophilus influenzae, or Moraxella catarrhalis.
Additionally, the use of SAS 9.4 software and analysis of nicotinamide adenine dinucleotide (NAD) levels in BHI broth can aid in understanding the disease pathogenesis.
In animal studies, the CBA/CaJ mouse model has been employed to investigate the immunological and inflammatory responses associated with otitis media.
Researchers may also explore the role of yeast extract and Todd-Hewitt broth in culturing and studying the relevant bacterial species.
For clinicians and researchers, the PathScan Enabler IV can be a valuable tool in the analysis of otitis media samples, facilitating the detection and quantification of various biomarkers.
By leveraging these insights and techniques, healthcare professionals can enhance their understanding of otitis media, leading to more accurate diagnoses, targeted treatments, and improved patient outcomes.
Symptoms may include ear pain, fever, and hearing loss.
Prompt diagnosis and treatment are crucial to prevent complications like mastoiditis or permanent hearing impairment.
Effective management typically involves antibiotic therapy, pain relief, and in some cases, surgical intervention.
When diagnosing otitis media, clinicians may utilize various laboratory techniques, such as blood agar plates, chocolate agar, and MSwab samples.
These methods can help identify the causative pathogens, which may include Streptococcus pneumoniae, Haemophilus influenzae, or Moraxella catarrhalis.
Additionally, the use of SAS 9.4 software and analysis of nicotinamide adenine dinucleotide (NAD) levels in BHI broth can aid in understanding the disease pathogenesis.
In animal studies, the CBA/CaJ mouse model has been employed to investigate the immunological and inflammatory responses associated with otitis media.
Researchers may also explore the role of yeast extract and Todd-Hewitt broth in culturing and studying the relevant bacterial species.
For clinicians and researchers, the PathScan Enabler IV can be a valuable tool in the analysis of otitis media samples, facilitating the detection and quantification of various biomarkers.
By leveraging these insights and techniques, healthcare professionals can enhance their understanding of otitis media, leading to more accurate diagnoses, targeted treatments, and improved patient outcomes.