RESUMO
OBJECTIVE: Gynecologic cancer chemotherapy impacts the quality of life (QOL) of patients, with lasting adverse events that may require treatment adjustments or discontinuation. Consequently, real-time symptom monitoring before outpatient visits has resulted in improved QOL for patients and extended survival times. This study investigated whether there are differences between electronic patient-reported outcomes (e-PRO-CTCAE) and physician-assessed outcomes (NCI-CTCAE) evaluated in an outpatient setting in gynecologic cancer chemotherapy. METHODS: The study was conducted on 50 patients who received their first chemotherapy treatment at St. Marianna University Hospital Obstetrics and Gynecology from July 1, 2021 to December 31, 2022. PRO-CTCAE and NCI-CTCAE were evaluated at each instance of chemotherapy and 2 weeks after. The PRO-CTCAE was additionally collected weekly using e-PRO. RESULTS: The values for "Joint Pain," "Nausea," "Taste Disturbance," "Constipation," "Insomnia," "Fatigue," "Limb Edema," and "Concentration Impairment" were consistently higher in PRO-CTCAE than in NCI-CTCAE, indicating that physicians underestimated the severity of adverse events. In contrast, there was no significant difference in "Peripheral Neuropathy," demonstrating that physicians had a good understanding of this condition in patients. The weekly responses obtained from e-PRO revealed that symptom exacerbations peaked outside of clinic visits. CONCLUSIONS: This study demonstrated physicians tend to underestimate most adverse events. Moreover, the responses using e-PRO revealed peak symptom deterioration occurred outside of outpatient visits. This suggested that e-PRO and actions taken in response to them can improve patients' QOL.
Assuntos
Quimiorradioterapia , Neoplasias dos Genitais Femininos , Feminino , Humanos , Quimiorradioterapia/efeitos adversos , Neoplasias dos Genitais Femininos/tratamento farmacológico , Neoplasias , Medidas de Resultados Relatados pelo Paciente , Médicos , Qualidade de Vida , Resultado do TratamentoRESUMO
Although the incidence of the various gynecological cancers has been increasing in recent years, long-term survival is now possible for many patients thanks to advances in multimodality treatment. When treating gynecological cancer in adolescent and young adult (AYA) patients who desire future pregnancy, it is necessary to preserve the reproductive organs and their function to prevent loss of fertility. However, because treatment targets these organs, in the large majority of cases, patients must have these organs removed. In the subfield of oncofertility, treatment of the underlying disease takes priority, and the main principle is preventing delay in treatment. Close cooperation between obstetricians and gynecologists involved in reproductive medicine and oncologists involved in cancer treatment is necessary. In addition, it is important that clinicians work closely not only with other specialists but also with such medical professionals as nurses and counselors so that cancer patients of the AYA generation can be provided the support they need to fight their cancer with hope. Herein, we describe the current status of fertility-sparing therapy for AYA patients with gynecological cancer (cervical cancer, endometrial cancer, or ovarian cancer). In addition, we explain points to keep in mind during a patient's pregnancy after fertility preservation, the latest findings on assisted reproductive technology, and the challenges and prospects of fertility preservation therapy for patients with gynecologic cancer.
Assuntos
Preservação da Fertilidade , Neoplasias dos Genitais Femininos , Oncologistas , Neoplasias Ovarianas , Adolescente , Feminino , Fertilidade , Neoplasias dos Genitais Femininos/terapia , Humanos , Gravidez , Adulto JovemRESUMO
Endocytosis is an important route for the intracellular delivery of biomacromolecules, wherein their inefficient endosomal escape into the cytosol remains a major barrier. Based on the understanding that endosomal membranes are negatively charged, we focused on the potential of cationic lytic peptides for developing endosomolysis agents to release such entrapped molecules. As such, a venom peptide, Mastoparanâ X, was employed and redesigned to serve as a delivery tool. Appending a tri-glutamate unit to the N-terminus attenuates the cytotoxicity of Mastoparanâ X by about 40 fold, while introduction of a NiII -dipicolylamine complex enhances cellular uptake of the peptide by about 17 fold. Using the optimized peptide, various fluorescently labeled macromolecules were successfully delivered to the cytosol, enabling live-cell imaging of acetylated histones.
Assuntos
Endossomos/metabolismo , Peptídeos/metabolismo , Cátions/química , Sobrevivência Celular/efeitos dos fármacos , Complexos de Coordenação/química , Citosol/metabolismo , Dextranos/química , Dextranos/metabolismo , Endocitose , Corantes Fluorescentes/química , Células HeLa , Humanos , Peptídeos e Proteínas de Sinalização Intercelular , Lipossomos/metabolismo , Microscopia Confocal , Níquel/química , Peptídeos/química , Peptídeos/farmacologiaRESUMO
To examine whether edible peptide intake affects neurotransmitter metabolism in the brain, we evaluated the effect of peptides derived from soy proteins or fish collagen on free amino acids and monoamines in the mouse brain. Ingestion of soy peptides led to markedly higher levels of tyrosine, a catecholamine precursor, in the serum, and cerebral cortex compared to those following ingestion of vehicle alone or collagen peptides. Soy peptide ingestion also effectively increased 3-methoxy-4-hydroxyphenylethyleneglycol and normetanephrine, the principal metabolites of noradrenaline, in the cerebral cortex, hippocampus, and brainstem, whereas collagen peptides did not exert such effects. Further, soy peptide ingestion led to a significant increase in noradrenaline itself in the brainstem, where noradrenergic neurons are present. Noradrenergic turnover was also markedly stimulated in these regions after soy peptide ingestion. These in vivo observations suggest that soy peptide ingestion can maintain and promote the synthesis and metabolism of noradrenaline in the brain.
Assuntos
Encéfalo/efeitos dos fármacos , Encéfalo/metabolismo , Ingestão de Alimentos , Glycine max/química , Norepinefrina/biossíntese , Norepinefrina/metabolismo , Peptídeos/farmacologia , Animais , Masculino , CamundongosRESUMO
BACKGROUND: An investigation of the mechanisms underlying the production of inflammatory cytokines through the stimulation of microorganisms on gingival epithelial cells may provide insights into the pathogenesis of the initiation of periodontitis. Lipid rafts, microdomains in the cell membrane, include a large number of receptors, and are centrally involved in signal transduction. We herein examined the involvement of lipid rafts in the expression of interleukin (IL-6) and IL-8 in gingival epithelial cells stimulated by periodontal pathogens. METHODS: OBA9, a human gingival cell line, was stimulated by Aggregatibacter actinomycetemcomitans or tumor necrosis factor (TNF)-α in the presence of methyl-ß-cyclodextrin (MßCD). RESULTS: A. actinomycetemcomitans or TNF-α increased IL-8 and IL-6 mRNA levels, and promoted the phosphorylation of ERK and p38 MAP kinase in OBA9. The pretreatment with MßCD abolished increases in IL-6 and IL-8 mRNA levels and the phosphorylation induced by A. actinomycetemcomitans, but did not suppress the response induced by TNF-α. The transfection of TLR4 inhibited A. actinomycetemcomitans-induced increases in IL-8 and IL-6 mRNA levels. Confocal microscopy revealed that MßCD inhibited the mobilization of TLR4 into lipid rafts. CONCLUSION: The mobilization of TLR4 into lipid rafts is involved in the expression of inflammatory cytokines and phosphorylation of MAP kinase in human gingival epithelial cells stimulated by A. actinomycetemcomitans.
Assuntos
Aggregatibacter actinomycetemcomitans/crescimento & desenvolvimento , Células Epiteliais/imunologia , Interações Hospedeiro-Patógeno , Microdomínios da Membrana/imunologia , Receptor 4 Toll-Like/genética , Proteínas Quinases p38 Ativadas por Mitógeno/imunologia , Aggregatibacter actinomycetemcomitans/metabolismo , Linhagem Celular , Células Epiteliais/efeitos dos fármacos , Células Epiteliais/microbiologia , Células Epiteliais/ultraestrutura , Regulação da Expressão Gênica , Gengiva/imunologia , Gengiva/microbiologia , Gengiva/patologia , Humanos , Interleucina-6/genética , Interleucina-6/imunologia , Interleucina-8/genética , Interleucina-8/imunologia , Microdomínios da Membrana/efeitos dos fármacos , Microdomínios da Membrana/microbiologia , Microdomínios da Membrana/patologia , Proteína Quinase 1 Ativada por Mitógeno/genética , Proteína Quinase 1 Ativada por Mitógeno/imunologia , Proteína Quinase 3 Ativada por Mitógeno/genética , Proteína Quinase 3 Ativada por Mitógeno/imunologia , Fosforilação , Transporte Proteico , RNA Interferente Pequeno/genética , RNA Interferente Pequeno/metabolismo , Transdução de Sinais , Receptor 4 Toll-Like/antagonistas & inibidores , Receptor 4 Toll-Like/imunologia , Fator de Necrose Tumoral alfa/farmacologia , beta-Ciclodextrinas/farmacologia , Proteínas Quinases p38 Ativadas por Mitógeno/genéticaRESUMO
Gingival epithelium is the primary barrier against microorganism invasion and produces inflammatory cytokines. Amphotericin B, a major antifungal drug, binds to cholesterol in the mammalian cell membrane in addition to fungal ergosterol. Amphotericin B has been shown to regulate inflammatory cytokines in host cells. To investigate the suppressive effect of amphotericin B on the gingival epithelium, we examined the expression of interleukin (IL)-8 and IL-6 and involvement of MAP kinase in human gingival epithelial cells (HGEC) stimulated by Aggregatibacter actinomycetemcomitans. Amphotericin B and the p38 MAP kinase inhibitor down-regulated the A. actinomycetemcomitans-induced increase in the expression of IL-8 and IL-6 at the mRNA. The ERK inhibitor suppressed the A. actinomycetemcomitans-induced IL-8 mRNA expression. Amphotericin B inhibited the A. actinomycetemcomitans-induced phosphorylation of ERK and p38 MAP kinase. Furthermore, amphotericin B inhibited the A. actinomycetemcomitans-induced production of prostaglandin E2. These results suggest that amphotericin B regulate inflammatory responses in HGEC.
Assuntos
Aggregatibacter actinomycetemcomitans/efeitos dos fármacos , Anfotericina B/farmacologia , Antibacterianos/farmacologia , Células Epiteliais/imunologia , Gengiva/imunologia , Western Blotting , Células Cultivadas , Regulação para Baixo , Células Epiteliais/microbiologia , Gengiva/microbiologia , Humanos , Interleucina-6/biossíntese , Interleucina-8/biossíntese , Testes de Sensibilidade Microbiana , Infecções por Pasteurellaceae/imunologia , Reação em Cadeia da Polimerase em Tempo Real , Reação em Cadeia da Polimerase Via Transcriptase ReversaRESUMO
Periodontitis is an infectious inflammatory disease. Our previous studies have revealed that irsogladine maleate (IM) regulates intercellular junctional function and chemokine secretion in gingival epithelium, resulting in the suppression of the onset of periodontal disease in a rat model. Therefore, it is plausible that IM is a promising preventive remedy for periodontal disease. In this study, to gain a better understanding of IM in gingival epithelial cells, we employed a DNA microarray analysis. More specifically, human gingival epithelial cells (HGEC) were exposed to Aggregatibacter actinomycetemcomitans (A. actinomycetemcomitans) in the presence or absence of IM. Then, a human genome focus array was used. A. actinomycetemcomitans facilitated the expression of several inflammatory-related genes, including these for matrix metalloproteinase (MMP)-3, interleukin (IL)-6, and intercellular adhesion molecule-1 (ICAM-1) in HGEC, while these mRNA levels were attenuated by IM treatment. Importantly, consistent with mRNA levels, immunoblotting, immunofluorescence staining and ELISA analysis indicated that IM also abrogated the A. actinomycetemcomitans-induced increase in MMP-3, IL-6, and ICAM-1 at the protein level. In addition, inhibition of the ERK or p38 MAP kinase signaling cascade, previously reported to be disturbed by IM treatment in HGEC, clearly blocked A. actinomycetemcomitans-induced MMP-3, IL-6, or ICAM-1 protein expression. Moreover, animal study revealed that IM-pretreatment inhibited the A. actinomycetemcomitans-induced increase of ICAM-1 in gingival junctional epithelium. Taken together, these results suggested that IM can regulate inflammatory responses in HGEC by inhibiting the ERK or p38 MAP kinase signaling cascade, which may result in suppression of inflammation in gingival tissue, thereby contributing to the prevention of periodontitis.
Assuntos
Infecções por Actinobacillus/imunologia , Aggregatibacter actinomycetemcomitans/imunologia , Células Epiteliais/efeitos dos fármacos , Regulação da Expressão Gênica/efeitos dos fármacos , Gengiva/patologia , Periodontite/prevenção & controle , Triazinas/farmacologia , Animais , Antígenos de Bactérias/imunologia , Células Cultivadas , Células Epiteliais/patologia , Humanos , Análise de Sequência com Séries de Oligonucleotídeos , Periodontite/genética , Periodontite/microbiologia , Ratos , Transdução de Sinais/efeitos dos fármacos , Triazinas/uso terapêutico , Proteínas Quinases p38 Ativadas por Mitógeno/metabolismoRESUMO
Developing novel methods for metal-induced switching of peptide structures expands the design principles of functional biomolecules and biomaterials. Here, a simple method for on-resin synthesis of dipicolylamine (Dpa)-containing peptides was developed. Whereas addition of divalent metal ions such as Fe(ii) and Cu(ii) to a peptide bearing a pair of Dpa moieties at the i and i + 4 positions led to the formation of a 1:1 complex of Dpa with metals, addition of Ni(ii) yielded a cross-linked structure of Dpa-metal (2:1). This feature was utilized for the selective detection of Ni(ii) using the peptide-Fe(ii) complex. Repeated switching of the helical structure was also achieved by multiple additions of divalent metal ions to the peptide.