anthonyyazdaniml/gliner-biomed-curated-corpus huggingface dataset:
Cases of methemoglobinemia have been reported in association with local anesthetic use. Although all patients are at risk for methemoglobinemia, patients with glucose-6-phosphate dehydrogenase deficiency, congenital or idiopathic methemoglobinemia, cardiac or pulmonary compromise, infants under 6 months of age, and concurrent exposure to oxidizing agents or their metabolites are more susceptible to developing clinical manifestations of the condition. If local anesthetics must be used in these patients, close monitoring for symptoms and signs of methemoglobinemia is recommended.

Signs of methemoglobinemia may occur immediately or may be delayed some hours after exposure, and are characterized by a cyanotic skin discoloration and/or abnormal coloration of the blood. Methemoglobin levels may continue to rise; therefore, immediate treatment is required to avert more serious central nervous system and cardiovascular adverse effects, including seizures, coma, arrhythmias, and death. Discontinue CITANEST and any other oxidizing agents. Depending on the severity of the signs and symptoms, patients may respond to supportive care, i.e., oxygen therapy, hydration. A more severe clinical presentation may require treatment with methylene blue exchange transfusion, or hyperbaric oxygen.

To minimize the likelihood of intravascular injection, aspiration should be performed before the local anesthetic solution is injected. If blood is aspirated, the needle must be repositioned until no return of blood can be elicited by aspiration. Note, however, that the absence of blood in the syringe does not assure that intravascular injection will be avoided.
Adenovirus E1B 19 kD protein protects against cell death induced by viral infection and certain external physical and chemical stimuli. Activity of the 19 kD protein is similar to the cell death suppressing activity of the protein coded by the Bcl-2 protooncogene. Bcl-2 protein can functionally substitute for the E1B 19 kD protein during adenovirus infection and in transformation of primary cells with adenovirus E1A. Five different cDNA's for proteins, designated Nip1, Nip2, Nip3, Bip1A and Bip13 that specifically interact with the 19 kD protein were found. Mutational analysis of the interaction indicates that at least four of the proteins (Nip1, Nip2, Nip3 and Bip1A) associate with 19 kD protein at specific sites thereof. Homologous motifs are found on Bcl2. An additional protein, (Bip5), interacts with Bcl-2 but not with the 19K protein.
In accordance with the present invention, a method of conferring resistance to retroviral infection upon a host cell is disclosed. The method involves transforming the host cell with a vector comprising a polynucleotide directing transcription within the host cell of RNA which (a) is complementary or homologous to a nucleic acid sequence within one or more gene coding regions within the genome of said retrovirus, and (b) is effective to inhibit replication of the retrovirus when the host cell is infected. A method of treatment using cells upon which resistance to infection has been conferred is also disclosed. Nucleic acid constructs including a polynucleotide as previously described are also disclosed. The construct can include a vector as previously described. Cells upon which resistance to infection has been conferred by the above-described methods and their progeny are also disclosed. The progeny of the originally transformed cells "contain a sequence which is descendant from" the polynucleotide previously described. RNA molecules directed by the polynucleotide are also disclosed. Such molecules are (a) being complementary or homologous to a nucleic acid sequence within the genome of a retrovirus, and (b) being effective to inhibit replication of said retrovirus. Finally, conferring resistance to infection by the above-discribed methods using a synthetic polynucleotide which is complementary or homologous to a nucleic acid sequence within one or more gene coding regions within the genome of the retrovirus and is effective to inhibit replication of said retrovirus.
One hundred patients suffering from major depression will participate in 16 sessions of supportive-expressive treatment. Patients will be randomized to one of two conditions: one that places a greater emphasis on supportive techniques, or one that places a greater emphasis on expressive techniques. These two conditions (supportive vs. expressive) hold the potential of either complementing or counter-complementing patients' attachment orientations (e.g., for a patient with higher levels of attachment anxiety, the supportive condition is complementary while the expressive is counter-complementary; the reverse is true for a patient with higher levels of attachment avoidance). Importantly, this study will employ multiple complementary methods, which will include session-by-session self-report alliance questionnaires from both patient and therapist, as well as a cognitive task assessing patients' relationship expectations, and behavioral observations of therapist-patient interactions. This study will be the first to utilize such a combination of methodologies in psychotherapy research and the first to examine the proposed mediation model. It will also be the first to manipulate the use of techniques in order to experimentally examine whether therapeutic techniques can be utilized to develop more efficient treatment models, based on the two transdiagnostic concepts of attachment and alliance. The findings will contribute both to our understanding of the relevance of attachment theory to psychotherapy research, and to the growing empirical literature on targeting transdiagnostic concepts (here, attachment and alliance) that cut across many disorders and treatment orientations. These transdiagnostic concepts can be utilized in the move towards tailoring existing psychological interventions to specific individuals according to their attachment orientations.
Atrial cardiomyopathy (ACM) forms the substrate for atrial fibrillation (AF) and underlies the potential for atrial thrombus formation and subsequent stroke. However, generating stable animal models that accurately replicate the entire progression of atrial lesions, particularly the onset of AF, presents significant challenges. In the present study, we found that the isoform of CRE-binding protein modulator (CREM-IbΔC-X), which is involved in the regulation of cardiac development and atrial rhythm, was highly expressed in atrial biopsies from patients with AF. Building upon this finding, we employed CRISPR/Cas9 technology to create a mouse model with cardiac-specific overexpression of CREM-IbΔC-X (referred to as CS-CREM mice). This animal model effectively illustrated the development of ACM through electrophysiological and structural remodelings over time. Proteomics and Chip-qPCR analysis of atrial samples revealed significant upregulation of cell-matrix adhesion and extracellular matrix structural components, alongside significant downregulation of genes related to atrial functions in the CS-CREM mice. Furthermore, the corresponding responses to anti-arrhythmia drugs, i.e., amiodarone and propafenone, suggested that CS-CREM mice could serve as an ideal in vivo model for drug testing. Our study introduced a novel ACM model with spontaneous AF by cardiac-specifically overexpressing CREM-IbΔC-X in mice, providing valuable insights into the mechanisms and therapeutic targets of ACM.
Placebo was injected subcutaneously once weekly on the same day and time for 24 weeks. To maintain the blind, placebo could be titrated by an unblinded central reader on weeks 4, 8, 12 and 16 to match the effect of dose titration.
Rifampin has been shown to produce liver dysfunction. Fatalities associated with jaundice have occurred in patients with liver disease and in patients taking rifampin with other hepatotoxic agents. Patients with impaired liver function should be given rifampin only in cases of necessity and then with caution and under strict medical supervision. In these patients, careful monitoring of liver function, especially SGPT/ALT and SGOT/AST should be carried out prior to therapy and then every 2 to 4 weeks during therapy. If signs of hepatocellular damage occur, rifampin should be withdrawn.

In some cases, hyperbilirubinemia resulting from competition between rifampin and bilirubin for excretory pathways of the liver at the cell level can occur in the early days of treatment. An isolated report showing a moderate rise in bilirubin and/or transaminase level is not in itself an indication for interrupting treatment; rather, the decision should be made after repeating the tests, noting trends in the levels, and considering them in conjunction with the patient's clinical condition.

Rifampin has enzyme-inducing properties, including induction of delta amino levulinic acid synthetase. Isolated reports have associated porphyria exacerbation with rifampin administration.

The possibility of rapid emergence of resistant meningococci restricts the use of rifampin to short-term treatment of the asymptomatic carrier state. Rifampin is not to be used for the treatment of meningococcal disease.

Systemic hypersensitivity reactions, including Drug Reaction with Eosinophilia and Systemic Symptoms

(DRESS) syndrome, may occur in patients receiving rifampin (see ADVERSE REACTIONS). Signs and symptoms of hypersensitivity reactions may include fever, rash, urticaria, angioedema, hypotension, acute bronchospasm, conjunctivitis, thrombocytopenia, neutropenia, elevated liver transaminases or flu-like syndrome (weakness, fatigue, muscle pain, nausea, vomiting, headache, chills, aches, itching, sweats, dizziness, shortness of breath, chest pain, cough, syncope, palpitations). These reactions may be severe and DRESS may be fatal. Manifestations of hypersensitivity, such as fever, lymphadenopathy or laboratory abnormalities (including eosinophilia, liver abnormalities) may be present even though rash is not evident. Monitor patients receiving rifampin for signs and/or symptoms of hypersensitivity reactions. If these signs or symptoms occur, discontinue rifampin and administer supportive measures.
Hearing loss (HL) is a heterogenous trait with pathogenic variants in more than 200 genes that have been discovered in studies involving small and large HL families. Over one-third of families with hereditary HL remain etiologically undiagnosed after screening for mutations in the recognized genes. Genetic heterogeneity complicates the analysis in multiplex families where variants in more than one gene can be causal in different individuals even in the same sibship. We employed exome or genome sequencing in at least two affected individuals with congenital or prelingual-onset, severe to profound, non-syndromic, bilateral sensorineural HL from four multiplex families. Bioinformatic analysis was performed to identify variants in known and candidate deafness genes. Our results show that in these four families, variants in a single HL gene do not explain HL in all affected family members, and variants in another known or candidate HL gene were detected to clarify HL in the entire family. We also present a variant in TOGARAM2 as a potential cause underlying autosomal recessive non-syndromic HL by showing its presence in a family with HL, its expression in the cochlea and the localization of the protein to cochlear hair cells. Conclusively, analyzing all affected family members separately can serve as a good source for the identification of variants in known and novel candidate genes for HL.
PURPOSE: To obtain the subject composition comprising a propellant, an oil and a fatty substance and having a stable foam by using some kind of compounds obtained from N-carboalkyloxy-11-aminoundecanoic acid or esters thereof as a foaming agent. CONSTITUTION: This anhydrous cosmetic composition in the aerosol form for forming a foam comprises a propellant such as CO2 and propane, at least one kind of a cosmetic oil or a mixture of an oil and a fatty substance, and a compound of the formula (R is H or a 14-20C alkyl; R1 is an 8-18C alkyl) as a foaming agent. The foaming agent of the formula is especially N- carbohexadecyloxy-11-aminoundecanoic acid, N-carbodecyloxy-11- aminoundecanoic acid, etc. The propellant is exemplified by CO2 , N2 O, propane, butanes (isobutane) and pentane. Further, a cosmetic component selected from vitamins, a plant or animal extract, a preservative and a flavoring agent can be included therein. The composition is useful for removal of cosmetics for the face and eye, maintenance of the dry skin and treatment of the hair.
Probiotics are increasingly used to manage gut dysbiosis-related conditions due to their robust ability to manipulate the gut microbial community. However, few studies have reported that probiotics can specifically modulate individual gut microbes. This study demonstrated that administering the probiotic, Lactiplantibacillus fermentum F6, could ameliorate dextran sulfate sodium-induced colitis in a rat model, evidenced by the decreases in the disease activity index score, histopathology grading, and serum pro-inflammatory cytokine levels, as well as the increase in the serum anti-inflammatory cytokine levels. Shotgun metagenomics revealed that the fecal metagenomic of colitis rats receiving the probiotic intervention contained substantially fewer Akkermansia muciniphila than the dextran sulfate sodium group. Thus, the probiotic mechanism might be exerted by reducing specific gut microbial species associated with disease pathogenesis. A new paradigm for designing probiotics that manage diseases through direct and precise manipulation of gut microbes has been provided through this study.
Ulcerative colitis (UC) is linked with inflammation of the large intestine due to an overactive response of the colon-immune system. UC is associated with weight loss, rectal bleeding, diarrhea, and abdominal pain. Given that γ-amino butyric acid (GABA) suppresses immune cell activity and the excitability of colonic afferents, and that there is a decrease in colonic GABA during UC, we hypothesized that UC pain is due to a decrease in the inhibition of colonic afferents. Thus, restoring GABA in the colon will attenuate inflammatory hypersensitivity. We tested this hypothesis in a mouse model of colitis. Colon inflammation was induced with seven days of dextran sodium sulfate (DSS, 3%) in the drinking water. GABA (40 mg/kg) was administered orally for the same period as DSS, and body weight, colon length, colon permeability, clinical progression of colitis (disease activity index or DAI), and colon histological score (HS) were assessed to determine the effects of GABA on colitis. A day after the end of GABA treatment, visceral sensitivity was assessed with balloon distention (of the colon)-evoked visceromotor response and colon samples were collected for the measurement of GABA and cytokines. Treatment with GABA reduced the DSS-induced increase in the colon permeability, DAI, HS, and decrease in body weight and colon length. Furthermore, GABA inhibited the DSS-induced increase in the proinflammatory cytokines tumor necrosis factor-α (TNF-α), interferon-γ (IFN-γ), interleukin-12 (IL-12), and increased the expression of the anti-inflammatory cytokine IL-10 in the colon tissue. Importantly, GABA reduced DSS-induced visceral hypersensitivity. These data suggest that increasing gastrointestinal levels of GABA may be useful for the treatment of colitis.NEW & NOTEWORTHY GABA treatment reduces the severity of colitis and inflammation and produces inhibition of visceral hypersensitivity in colon-inflamed mice. These results raise the promising possibility that GABA treatment may be an effective therapeutic strategy for the management of symptoms associated with colitis. However, clinical studies are required to corroborate whether this mouse-model data translates to human colon.
Many septic patients develop acute renal failure and the risk is higher in patients with diabetes. The pathogenetic mechanisms behind the development of acute renal failure in connection with sepsis is not completely understood. One among many possible explanations is a change in renal hemodynamics. However, it is still largely unknown what happens to the renal plasma flow during human sepsis. In this study we give endotoxin injection (0,3 ng/kg) to type 2 diabetics and healthy controls as an experimental model of sepsis. Renal plasma flow and glomerular filtration rate are measured by DTPA-renography 1 day before before and 1,25 and 6,5 hours after injection of endotoxin. Furthermore WBC, plasma-cytokines,VCAM-1/ICAM-1, endothelin-1, Thromboxane B2, angiotensin 2, renin and PAI-1 are measured on an hourly basis up to 8 hours after endotoxin injection.
1.
    Select the CAVERJECT IMPULSE syringe based upon dose to be administered. 

2.
    Open the sealed plastic tray. Remove the syringe, the needle assembly, and the alcohol swabs from the tray. The syringe has a dose window and a plunger. The needle assembly is a sealed unit that contains the outer protective cap, the inner protective cap, and the superfine needle.
3.
    Use the alcohol swab to wipe the rubber membrane at the tip of the syringe. Pick up the needle assembly, grasp the paper tab, and peel off the paper cover (the lid).
4.
    Hold the needle assembly by the cap and press the needle assembly onto the tip of the syringe. Turn it clockwise until the needle assembly is firmly locked into place.
5.
    Remove the outer protective cap from the needle by twisting it clockwise. Do not yet remove the inner protective cap, the thin plastic tube that directly covers the needle.
6.
    Hold the syringe system with the needle pointing upward. The plunger rod should still be in the fully extended position, with all of the threads visible. Slowly rotate the plunger rod clockwise until it goes all the way in and stops. Do not push on the plunger while trying to rotate it.
7.
    Turn the syringe upside down several times to make sure the solution is evenly mixed. The solution should be clear. Parenteral drug products should be inspected visually for particulate matter and discoloration prior to administration. The product should not be used if particulate matter or discoloration are present.
8.
    Hold the syringe with the needle upward and carefully remove the inner protective cap from the needle. Lightly tap the glass cartridge a few times with your finger until any large bubbles disappear up into the tip. With the syringe pointed upward, push in the plunger rod until it stops to push any air out.
9.
    To set the dose: locate the dose window on the syringe and then slowly turn the plunger rod clockwise until the correct dose number appears in the center of the window. The syringe is now ready for use. If you pass the correct number, keep turning the plunger in the same direction until the correct number comes around again – do not try to turn it backward.
10.
    After reconstitution, the syringe should be used within 24 hours when stored between 36 to 77°F (2°C to 25°C). Do not freeze. CAVERJECT IMPULSE is for single use only. Discard the injection delivery system and any remaining solution after use.
Aims: The aims of this study is to compare patient satisfaction and oral health quality of life without using denture adhesive and using 3 types of denture adhesives.

Materials and Methods: 60 completely edentulous patients attending the University of Jordan hospital seeking new sets of complete dentures will be randomly divided into 3 groups (n=20). At delivery of complete dentures, all patients will be given the dentures with no denture adhesive and will be given review appointments after one month of using the dentures. At review appointment, patients will be asked to rate their overall satisfaction and their satisfaction regarding comfort, retention, stability, and efficiency of mastication and speech on a 100-mm visual analog scale (VAS). Participants also will fill out the oral health impact profile for edentulous patients (OHIP-EDENT) questionnaire. Each group will then be given one type of denture adhesive to use; paste-based Corega denture adhesive (CO), Sea Bond maxillary and mandibular denture adhesive strips (SB) and oil-based Olivafix denture adhesive (OF). Patients will be given instructions on how to use each type of adhesive and will be provided with sufficient amount for 1 month. After 1 month, patients will be asked to fill out the same forms
Part C: A well tolerated dose selected from Parts A \& B will be used to test whether the drug has an effect on individual preferences for sugary and high fat food, when compared to placebo. Up to 32 healthy overweight male volunteers will be enrolled.
Post-study period (Group 1). PH-ECG transmission and a STEMI code system implemented after the pilot study period.
Do not use diluents containing calcium, such as Ringer’s solution or Hartmann’s solution, to reconstitute ceftriaxone for injection vials or to further dilute a reconstituted vial for IV administration. Particulate formation can result.

Ceftriaxone has been shown to be compatible with Flagyl® IV (metronidazole hydrochloride). The concentration should not exceed 5 to 7.5 mg/mL metronidazole hydrochloride with ceftriaxone 10 mg/mL as an admixture. The admixture is stable for 24 hours at room temperature only in 0.9% sodium chloride injection or 5% dextrose in water (D5W). No compatibility studies have been conducted with the Flagyl® IV RTU® (metronidazole) formulation or using other diluents. Metronidazole at concentrations greater than 8 mg/mL will precipitate. Do not refrigerate the admixture as precipitation will occur.

Vancomycin, amsacrine, aminoglycosides, and fluconazole are incompatible with ceftriaxone in admixtures. When any of these drugs are to be administered concomitantly with ceftriaxone by intermittent intravenous infusion, it is recommended that they be given sequentially, with thorough flushing of the intravenous lines (with one of the compatible fluids) between the administrations.

Ceftriaxone for injection solutions should not be physically mixed with or piggybacked into solutions containing other antimicrobial drugs or into diluent solutions other than those listed above, due to possible incompatibility (see WARNINGS).

Ceftriaxone for injection sterile powder should be stored at 20° to 25°C (68° to 77°F) [See USP Controlled Room Temperature] and protected from light. After reconstitution, protection from normal light is not necessary. The color of solutions ranges from light yellow to amber, depending on the length of storage, concentration and diluent used.

Ceftriaxone for injection intravenous solutions, at concentrations of 10, 20 and 40 mg/mL, remain stable (loss of potency less than 10%) for the following time periods stored in glass or PVC containers:

The following intravenous ceftriaxone for injection solutions are stable at room temperature (25°C) for 24 hours, at concentrations between 10 mg/mL and 40 mg/mL: Sodium Lactate (PVC container), 10% Invert Sugar (glass container), 5% Sodium Bicarbonate (glass container), Freamine III (glass container), Normosol-M in 5% Dextrose (glass and PVC containers), Ionosol-B in 5% Dextrose (glass container), 5% Mannitol (glass container), 10% Mannitol (glass container).

After the indicated stability time periods, unused portions of solutions should be discarded.

NOTE: Parenteral drug products should be inspected visually for particulate matter before administration.

Ceftriaxone for injection reconstituted with 5% Dextrose or 0.9% Sodium Chloride solution at concentrations between 10 mg/mL and 40 mg/mL, and then stored in frozen state (-20°C) in PVC or polyolefin containers, remains stable for 26 weeks.

Frozen solutions of ceftriaxone for injection should be thawed at room temperature before use. After thawing, unused portions should be discarded. DO NOT REFREEZE.
Participants will receive i.v. placebo at baseline and at Weeks 4, 16, 28 and 40 during the core treatment period and will switch during the extension period to receive bimagrumab 30 mg/kg at Weeks 52 and 64.