c-Jun Polyclonal Antibody
- Known as:
- c-Jun Polyclonal Antibody
- Catalog number:
- a-0470-100
- Product Quantity:
- USD
- Category:
- -
- Supplier:
- Epigentek inc
- Gene target:
- c-Jun Polyclonal Antibody
Ask about this productRelated products to: c-Jun Polyclonal Antibody
Related articles to: c-Jun Polyclonal Antibody
- Pigs have long been used as an animal model for fibula flaps. However, the vascular anatomy of the pig fibula has not been described comprehensively. This study was designed to explore the vascular anatomy of the pig fibula and explore the feasibility of using pigs as animal models for surgical training. - Source: PubMed
Publication date: 2026/06/26
Zuo YanhaiQian JunLong PanZhou XinchuYi Lei - Assess factors associated with recommended full-mouth extraction (FME) before radiation therapy (RT) for head-and-neck cancer (HNC). - Source: PubMed
Publication date: 2026/06/30
Iturbide AdrianaHughes BriannaDhaliwal VishawdeepBernard MatthewNoll JeneneHodges James SLalla Rajesh Vvon Bültzingslöwen IngerBrennan Michael T - There is increasing interest in MRI for diagnostic purposes in dentistry, resulting in development of a novel dental-dedicated MRI (ddMRI) system. This study compared 2D and 3D acquisitions of the mandibular third molar (MTM) region using ddMRI. - Source: PubMed
Publication date: 2026/06/25
Franklin KyleSpin-Neto RubensChristensen JenniferReside GlennTyndall Don - Breast cancer is one of the most common types of cancer in women, and its treatment depends on the type and severity of the disease. Traditional treatments lead to side effects that require searching for alternative treatment methods. Microgravity is one such method that is currently being studied. In summary, exposure of cancer cells to microgravity dramatically changes morphological, biological, and genetic functions and increases the apoptosis rate. In this manuscript, a comprehensive study is conducted on the effects of microgravity on the breast cancer cell line (AMJ13) in terms of external appearance characteristics, growth behavior, biological properties, cell effectiveness, and DNA damage by exposing the cells to simulated microgravity for 24 h. The results showed a significant change in the morphology and growth behavior of the cells due to being subjected to simulated microgravity conditions compared with the control cells. The cytotoxicity test (MTT) showed an increase in cell inhibition rate under the influence of microgravity. The effect of the microgravity environment extended beyond the morphology level of the cells to the genetic level, as the comet examination showed apparent damage to the DNA compared with the control cells. This comprehensive study opens up possibilities for microgravity as an essential tool in studying cell behavior and conducting cancer treatment research in the future. - Source: PubMed
Publication date: 2026/06/11
Altaie SaifaldeenAl-Sabawi Ahmad Wadollah SAbdulla Ali AJunaid MoaminAlrawi AmeraFaisal Rayan MazinAlNeaimy Kassim S AAltaee Mohammed SAhmed Abeer WaliXuexin DuanAlnada Qater - New food systems are needed for multi-year space missions. Supporting long missions exclusively with preserved food is logistically impractical and would have negative physical and psychological impacts on crew members. One option is to grow crops of fresh food on spacecraft or in off-Earth habitats. Strawberry (Fragaria sp.) has been identified as a potential space crop due to its physical, physiological and sensory properties. We assessed the potential of the alpine strawberry, F. vesca, as a new space crop by comparing F. vesca accession Hawaii 4 (F7) to NASA's space strawberry candidate F. x ananassa 'Delizz'. F. vesca is a diploid strawberry and more readily amenable to genetic optimisation for space than the octoploid F. x ananassa. We grew the two strawberry species in a deep-water culture hydroponic system under conditions that simulated an enclosed space habitat and measured their growth and biomass allocation. We grew both species from seed because seed can be sterilised and stored more easily in space than vegetative plant material. F. vesca was additionally grown from runner plantlets in the system to identify differences between seed and plantlet propagation. Plants were harvested on day 0, 43 and 78 after transplantation into the hydroponic system. Total leaf area, total root length and dry mass of plant tissues were measured. F. vesca showed more promising results when grown from seed compared to runner plantlet. When started from seed, F. vesca accumulated three times more biomass than F. x ananassa 'Delizz' seedlings in the first eight weeks preceding transplant to the hydroponic system on day 0. By day 78 after transplanting, there were no significant differences in total biomass and harvest index between the two strawberry species grown from seed. Seed-grown F. vesca also had a higher specific leaf area by a factor of 1.4 and twice the number of buds, flowers and fruit than F. x ananassa 'Delizz' grown from seed. Despite these favourable traits, the Hawaii 4 (F7) accession of F. vesca appears unsuitable as a space crop in its current form, primarily due to high biomass allocation to runners. Future studies of F. vesca's potential as a space crop should focus on runnerless accessions, propagation from seed, refinement of nutrient concentrations and ambient conditions, and on genetic transformation, to enhance fruit quality, increase fruit yield and optimise root architecture for hydroponics. - Source: PubMed
Publication date: 2026/06/28
Nakashima KFarrell CCalabria JMillar A HMassa GWatt M