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jtitle_s:("anesti Prog")
26.  Norman Trieger, DMD, MD 1929–2012 
Anesthesia Progress  2013;60(1):1-2.
PMCID: PMC3601723
27.  Ventilation via Cut Nasotracheal Tube During General Anesthesia 
Anesthesia Progress  2013;60(1):11-14.
Many patients with disabilities need recurrent dental treatment under general anesthesia because of high caries prevalence and the nature of dental treatment. We evaluated the use of a nasal device as a possible substitute for flexible laryngeal mask airway to reduce the risk of unexpected failure accompanying intubation; we succeeded in ventilating the lungs with a cut nasotracheal tube (CNT) with its tip placed in the pharynx. We hypothesized that this technique would be useful during dental treatment under general anesthesia and investigated its usefulness as part of a minimally invasive technique. A prospective study was designed using general anesthesia in 37 dental patients with disabilities such as intellectual impairment, autism, and cerebral palsy. CNT ventilation was compared with mask ventilation with the patient in 3 positions: the neck in flexion, horizontal position, and in extension. The effect of mouth gags was also recorded during CNT ventilation. The percentages of cases with effective ventilation were similar for the 2 techniques in the neck extension and horizontal positions (89.2–97.3%). However, CNT ventilation was significantly more effective than mask ventilation in the neck flexion position (94.6 vs 45.9%; P < .0001). Mouth gags slightly reduced the rate of effective ventilation in the neck flexion position. Most dental treatments involving minor oral surgeries were performed using mouth gags during CNT ventilation. CNT ventilation was shown to be superior to mask ventilation and is useful during dental treatment under general anesthesia.
PMCID: PMC3601724  PMID: 23506278
General anesthesia; Cut nasotracheal tube.
28.  Effect of Massage on the Efficacy of the Mental and Incisive Nerve Block 
Anesthesia Progress  2013;60(1):15-20.
The purpose of this trial was to assess the effect of soft tissue massage on the efficacy of the mental and incisive nerve block (MINB). Thirty-eight volunteers received MINB of 2.2 mL of 2% lidocaine with 1 : 80,000 epinephrine on 2 occasions. At one visit the soft tissue overlying the injection site was massaged for 60 seconds (active treatment). At the other visit the crowns of the mandibular premolar teeth were massaged (control treatment). Order of treatments was randomized. An electronic pulp tester was used to measure pulpal anesthesia in the ipsilateral mandibular first molar, a premolar, and lateral incisor teeth up to 45 minutes following the injection. The efficacy of pulp anesthesia was determined by 2 methods: (a) by quantifying the number of episodes with no response to maximal electronic pulp stimulation after each treatment, and (b) by quantifying the number of volunteers with no response to maximal pulp stimulation (80 reading) on 2 or more consecutive tests, termed anesthetic success. Data were analyzed by McNemar, Mann-Whitney, and paired-samples t tests. Anesthetic success was 52.6% for active and 42.1% for control treatment for lateral incisors, 89.5 and 86.8% respectively for premolars, and 50.0 and 42.1% respectively for first molars (P = .344, 1.0, and .508 respectively). There were no significant differences in the number of episodes of negative response to maximum pulp tester stimulation between active and control massage. A total of 131 episodes were recorded after both active and control massage in lateral incisors (McNemar test, P = 1.0), 329 (active) versus 316 (control) episodes in the premolars (McNemar test, P = .344), and 119 (active) versus 109 (control) episodes respectively for first molars (McNemar test, P = .444). Speed of anesthetic onset and discomfort did not differ between treatments. We concluded that soft tissue massage after MINB does not influence anesthetic efficacy.
PMCID: PMC3601725  PMID: 23506279
Dental pulp anesthesia; Lidocaine; Mental and incisive nerve block
29.  Continuous Veno-Venous Hemofiltration for Massive Rhabdomyolysis After Malignant Hyperthermia: Report of 2 Cases 
Anesthesia Progress  2013;60(1):21-24.
We present 2 cases of fulminant malignant hyperthermia (MH), complicated with massive rhabdomyolysis. The patients were successfully treated in the intensive care unit of our university teaching hospital, despite the lack of availability of dantrolene in our country, by early application of continuous veno-venous hemofiltration (CVVH). Both male patients developed fulminant malignant hyperthermia during anesthesia for oromaxillofacial surgery. CVVH was employed when the values of creatine phosphokinase (CPK), myoglobin (Mb), and lactate dehydrogenase (LDH) increased significantly. After emergency treatment and CVVH therapy, the values of CPK, Mb, and LDH in the blood plasma of the patients decreased significantly. The complications, including acute renal failure, disseminated intravascular coagulation, and acute respiratory distress syndrome were also treated without any obvious organ damage. Early detection and management are the keys to treat MH successfully. CVVH is a valuable therapeutic application in the initial/critical management of severe rhabdomyolysis. If these complications occur even with initial treatment with dantrolene, our experiences may be useful adjunctive treatments to consider.
PMCID: PMC3601726  PMID: 23506280
Malignant hyperthermia; Continuous veno-venous hemofiltration.
30.  Basic and Clinical Pharmacology of Glucocorticosteroids 
Anesthesia Progress  2013;60(1):25-32.
Glucocorticosteroids are a product of the adrenal cortex and perform a staggering number of physiological effects essential for life. Their clinical use is largely predicated on their anti-inflammatory and immunosuppressive properties, but they also have notable efficacy in the prophylaxis of postoperative nausea and vomiting. This article reviews the basic functions of glucocorticoids and their clinical use in dental practice.
PMCID: PMC3601727  PMID: 23506281
Glucocorticosteroid; Trauma; Postoperative swelling; PONV; Dentistry; Mucosal lesions
31.  Anesthetic Efficacy of a Combination of 0.5 M Mannitol Plus 127.2 mg of Lidocaine With 50 μg Epinephrine in Inferior Alveolar Nerve Blocks: A Prospective Randomized, Single-Blind Study 
Anesthesia Progress  2013;60(1):3-10.
The purpose of this prospective, randomized, single-blind study was to determine the anesthetic efficacy of 127.2 mg lidocaine with 50 μg epinephrine compared to 127.2 mg lidocaine with 50 μg epinephrine plus 0.5 M mannitol in inferior alveolar nerve (IAN) blocks. Forty subjects randomly received 2 IAN blocks consisting of a 3.18 mL formulation of 127.2 mg lidocaine with 50 μg epinephrine and a 5 mL formulation of 127.2 mg lidocaine with 50 μg epinephrine (3.18 mL) plus 0.5 M mannitol (1.82 mL) in 2 separate appointments spaced at least 1 week apart. Mandibular anterior and posterior teeth were blindly electric pulp tested at 4-minute cycles for 60 minutes postinjection. Pain of solution deposition and postoperative pain were also measured. No response from the subject to the maximum output (80 reading) of the pulp tester was used as the criterion for pulpal anesthesia. Total percent pulpal anesthesia was defined as the total of all the times of pulpal anesthesia (80 readings) over the 60 minutes. One hundred percent of the subjects had profound lip numbness with both inferior alveolar nerve blocks. The results demonstrated that a 5 mL formulation of 127.2 mg lidocaine with 50 μg epinephrine plus 0.5 M mannitol was significantly better than the 3.18 mL formulation of 127.2 mg lidocaine with 50 μg epinephrine for all teeth. Solution deposition pain and postoperative pain were not statistically different between the lidocaine/mannitol formulation and the lidocaine formulation without mannitol. We concluded that adding 0.5 M mannitol to a lidocaine with epinephrine formulation was significantly more effective in achieving a greater percentage of total pulpal anesthesia than a lidocaine formulation without mannitol.
PMCID: PMC3601728  PMID: 23506277
Inferior alveolar nerve block; Lidocaine; Mannitol; Epinephrine
32.  Continuing Education Program 
Anesthesia Progress  2013;60(1):33.
PMCID: PMC3601729
33.  Have You Met Your Production Quota Today? 
Anesthesia Progress  2012;59(4):141-142.
PMCID: PMC3522490  PMID: 23241035
34.  Effect of Passive Smoke Exposure on General Anesthesia for Pediatric Dental Patients 
Anesthesia Progress  2012;59(4):143-146.
The purpose of this study was to test the null hypothesis that children with environmental tobacco smoke (ETS) exposure (also known as passive smoke exposure) do not demonstrate an increased likelihood of adverse respiratory events during or while recovering from general anesthesia administered for treatment of early childhood caries. Parents of children (ages 19 months–12 years) preparing to receive general anesthesia for the purpose of dental restorative procedures were interviewed regarding the child's risk for ETS. Children were observed during and after the procedure by a standardized dentist anesthesiologist and postanesthesia care unit nurse who independently recorded severity of 6 types of adverse respiratory events—coughing, laryngospasm, bronchospasm, breath holding, hypersecretion, and airway obstruction. Data from 99 children were analyzed. The children for whom ETS was reported were significantly older than their ETS-free counterparts (P = .03). If the primary caregiver smoked, there was a significantly higher incidence of smoking by other members of the family (P < .0001) as well as smoking in the house (P < .0005). There were no significant differences between the adverse respiratory outcomes of the ETS (+) and ETS (−) groups. The ETS (+) children did have significantly longer recovery times (P < .0001) despite not having significantly more dental caries (P = .38) or longer procedure times. ETS is a poor indicator of post–general anesthesia respiratory morbidity in children being treated for early childhood caries.
PMCID: PMC3522491  PMID: 23241036
Passive smoke exposure; Dental caries
35.  Time and Cost Analysis: Pediatric Dental Rehabilitation with General Anesthesia in the Office and the Hospital Settings 
Anesthesia Progress  2012;59(4):147-153.
Pediatric dental patients who cannot receive dental care in the clinic due to uncooperative behavior are often referred to receive dental care under general anesthesia (GA). At Stony Brook Medicine, dental patients requiring treatment with GA receive dental care in our outpatient facility at the Stony Brook School of Dental Medicine (SDM) or in the Stony Brook University Hospital ambulatory setting (SBUH). This study investigates the time and cost for ambulatory American Society of Anesthesiologists (ASA) Class I pediatric patients receiving full-mouth dental rehabilitation using GA in these 2 locations, along with a descriptive analysis of the patients and dental services provided. In this institutional review board–approved cross-sectional retrospective study, ICD-9 codes for dental caries (521.00) were used to collect patient records between July 2009 and May 2011. Participants were limited to ASA I patients aged 36–60 months. Complete records from 96 patients were reviewed. There were significant differences in cost, total anesthesia time, and recovery room time (P < .001). The average total time (anesthesia end time minus anesthesia start time) to treat a child at SBUH under GA was 222 ± 62.7 minutes, and recovery time (time of discharge minus anesthesia end time) was 157 ± 97.2 minutes; the average total cost was $7,303. At the SDM, the average total time was 175 ± 36.8 minutes, and recovery time was 25 ± 12.7 minutes; the average total cost was $414. After controlling for anesthesia time and procedures, we found that SBUH cost 13.2 times more than SDM. This study provides evidence that ASA I pediatric patients can receive full-mouth dental rehabilitation utilizing GA under the direction of dentist anesthesiologists in an office-based dental setting more quickly and at a lower cost. This is very promising for patients with the least access to care, including patients with special needs and lack of insurance.
PMCID: PMC3522492  PMID: 23241037
Pediatric dentistry; Dental anesthesia; Cost analysis; Operating room; Office-based anesthesia; Health economics
36.  Environmental Implications of Anesthetic Gases 
Anesthesia Progress  2012;59(4):154-158.
For several decades, anesthetic gases have greatly enhanced the comfort and outcome for patients during surgery. The benefits of these agents have heavily outweighed the risks. In recent years, the attention towards their overall contribution to global climate change and the environment has increased. Anesthesia providers have a responsibility to minimize unnecessary atmospheric pollution by utilizing techniques that can lessen any adverse effects of these gases on the environment. Moreover, health care facilities that use anesthetic gases are accountable for ensuring that all anesthesia equipment, including the scavenging system, is effective and routinely maintained. Implementing preventive practices and simple strategies can promote the safest and most healthy environment.
PMCID: PMC3522493  PMID: 23241038
Volatile anesthetics; Environmental pollution; Greenhouse warming potential; Ozone depletion potential
37.  Basic and Clinical Pharmacology of Autonomic Drugs 
Anesthesia Progress  2012;59(4):159-169.
Autonomic drugs are used clinically to either imitate or inhibit the normal functions of the sympathetic and parasympathetic nervous systems. A large number of additional drug classes also interact with these systems to produce a stunning number of possible side effects. This article reviews the basic function of the autonomic nervous system and the various drug classes that act within these neural synapses.
PMCID: PMC3522494  PMID: 23241039
Autonomic drugs; Sympathomimetics; Adrenergic agonists; Adrenergic antagonists; Cholinergic drugs; Anticholinergic drugs
38.  Continuing Education Program 
Anesthesia Progress  2012;59(4):170.
PMCID: PMC3522495
39.  Author Index, Volume 59 
Anesthesia Progress  2012;59(4):171.
PMCID: PMC3522496
40.  Subject Index, Volume 59 
Anesthesia Progress  2012;59(4):172.
PMCID: PMC3522497  PMID: 23506254
41.  Prevention of Fire in the Dental Chair 
Anesthesia Progress  2012;59(3):105-106.
PMCID: PMC3468287  PMID: 23050749
42.  Comparison of Propofol-Remifentanil Versus Propofol-Ketamine Deep Sedation for Third Molar Surgery 
Anesthesia Progress  2012;59(3):107-117.
This study aimed to compare continuous intravenous infusion combinations of propofol-remifentanil and propofol-ketamine for deep sedation for surgical extraction of all 4 third molars. In a prospective, randomized, double-blinded controlled study, participants received 1 of 2 sedative combinations for deep sedation for the surgery. Both groups initially received midazolam 0.03 mg/kg for baseline sedation. The control group then received a combination of propofol-remifentanil in a ratio of 10 mg propofol to 5 μg of remifentanil per milliliter, and the experimental group received a combination of propofol-ketamine in a ratio of 10 mg of propofol to 2.5 mg of ketamine per milliliter; both were given at an initial propofol infusion rate of 100 μg/kg/min. Each group received an induction loading bolus of 500 μg/kg of the assigned propofol combination along with the appropriate continuous infusion combination . Measured outcomes included emergence and recovery times, various sedation parameters, hemodynamic and respiratory stability, patient and surgeon satisfaction, postoperative course, and associated drug costs. Thirty-seven participants were enrolled in the study. Both groups demonstrated similar sedation parameters and hemodynamic and respiratory stability; however, the ketamine group had prolonged emergence (13.6 ± 6.6 versus 7.1 ± 3.7 minutes, P = .0009) and recovery (42.9 ± 18.7 versus 24.7 ± 7.6 minutes, P = .0004) times. The prolonged recovery profile of continuously infused propofol-ketamine may limit its effectiveness as an alternative to propofol-remifentanil for deep sedation for third molar extraction and perhaps other short oral surgical procedures, especially in the ambulatory dental setting.
PMCID: PMC3468288  PMID: 23050750
Propofol; Ketamine; Remifentanil; Deep sedation; TIVA
43.  Large-Dose Epinephrine Reduces Skeletal Muscle Blood Flow Under General Anesthesia in Rabbits 
Anesthesia Progress  2012;59(3):118-122.
The goal of this study was to investigate the effect of an epinephrine continuous infusion on muscle blood flow in rabbits. Sixteen male Japan White rabbits were randomly allocated to 1 of 2 groups: epinephrine continuous infusion at 0.01 μg/kg/min (Ep-0.01 group, n = 8) and at 0.1 μg/kg/ min (Ep-0.1 group, n = 8). The observed variables were heart rate, femoral artery blood pressure, common carotid artery blood flow (CCBF), masseter muscle blood flow (MBF), and quadriceps muscle blood flow (QBF). In the Ep-0.01 group, CCBF, MBF, and QBF were increased by 14, 22, and 21% from respective control values. In contrast, in the Ep-0.1 group, CCBF, MBF and QBF were decreased by 10, 30, and 27% from respective control values. There were no differences in the percentage change between MBF and QBF during epinephrine continuous infusion. Positive correlations were observed between CCBF and MBF and between CCBF and QBF. In conclusion, skeletal muscle blood flow was increased during the small-dose epinephrine infusion, whereas it was decreased during large-dose infusion.
PMCID: PMC3468289  PMID: 23050751
Epinephrine; Skeletal muscle blood flow; Rabbits
44.  Severe Intraoperative Bronchospasm Treated with a Vibrating-Mesh Nebulizer 
Anesthesia Progress  2012;59(3):123-126.
Bronchospasm and status asthmaticus are two of the most dreaded complications that a pediatric anesthesiologist may face. With the occurrence of severe bronchospasm and the inability to ventilate, children are particularly vulnerable to apnea and ensuing hypoxia because of their smaller airway size, smaller lung functional residual capacity, and higher oxygen consumption rates than adults. Nebulized medication delivery in intubated children is also more difficult because of smaller endotracheal tube internal diameters. This case demonstrates the potentially lifesaving use of a vibrating-mesh membrane nebulizer connected to the anesthesia circuit for treating bronchospasm.
PMCID: PMC3468290  PMID: 23050752
Asthma; Bronchospasm; Nasal intubation; Pediatric dental anesthesia; Vibrating-mesh; nebulizer
45.  Local Anesthesia Part 2: Technical Considerations 
Anesthesia Progress  2012;59(3):127-137.
An earlier paper by Becker and Reed provided an in-depth review of the pharmacology of local anesthetics. This continuing education article will discuss the importance to the safe and effective delivery of these drugs, including needle gauge, traditional and alternative injection techniques, and methods to make injections more comfortable to patients.
PMCID: PMC3468291  PMID: 23050753
Local anesthetics; Dentistry; Techniques; Needle gauge; Warming; Buffering; Novel devices
46.  Continuing Education Program 
Anesthesia Progress  2012;59(3):138.
PMCID: PMC3468292
Anesthesia Progress  2012;59(3):139.
PMCID: PMC3468293
48.  Continuing Education Program 
Anesthesia Progress  2012;59(2):103.
PMCID: PMC3403580
49.  John A. Yagiela, D.D.S., Ph.D.- A Dental Anesthesia Giant 1947–2012 
Anesthesia Progress  2012;59(2):55-56.
PMCID: PMC3403581
50.  Effect of Lidocaine- and Prilocaine-Based Topical Anesthetics on the Inflammatory Exudates in Subcutaneous Tissue of Rats 
Anesthesia Progress  2012;59(2):57-61.
The aim of this present study was to evaluate the irritative potential of 2 topical anesthetics used in intrapocket anesthesia for periodontal scaling/root planing when applied in subcutaneous tissue of rats. Sixty animals were divided into 4 groups: group 1, saline solution (control); group 2, poloxamer gel (thermosetting vehicle); group 3, lidocaine and prilocaine poloxamer thermosetting gel; group 4: EMLA, a lidocaine and prilocaine dermatological cream. Injections of 2% Evans blue were administrated intravenously into the lateral caudal vein. In order to analyze vascular permeability, the tested substances were injected intradermally. The rats were sacrificed 3, 6, and 9 hours after injection of the substances. The dorsal skin was dissected and removed. The vascular permeability was evaluated by the measurement of area of dye extravasation and the dye was subsequently extracted after immersion in formamide. Statistical analyses were made by ANOVA with Bonferroni's post hoc test and Pearson correlation. The 2 methods to analyze the exudative phase of the inflammatory process showed statistically significant difference among the groups and periods of evaluation (P < .05). Both methods had a significant correlation (P < .0001). Under the tested conditions, the anesthetic agents showed mild initial inflammatory response when implanted in subcutaneous connective tissue.
PMCID: PMC3403582  PMID: 22822991
Biocompatibility testing; Anesthetics local; Lidocaine; Prilocaine

Results 26-50 (2907)