Faulkneredvardsen7403
คาเมล88 is a heavy-duty cargo hauler that’s just as comfortable transporting kids as it is loading up groceries. It has a step-through frame and smaller 20" wheels that make it easy to mount and dismount, as well as a short wheelbase that limits the amount of bike that’s needed for maneuvering. It’s also a bit lighter than some competing models, which can be a boon when you’re trying to lug around a lot of gear.
The 88 is also one of the most affordable e-bikes on the market, which makes it an excellent choice for those who want to get into the cargo bike scene without spending a fortune. Despite its low price, the 88 is a very capable and reliable ride that’s sure to please any cargo-hauling commuter or family-oriented trailblazer.
Using the latest in e-bike technology, the 88 offers a great balance of features and performance. Its 250-watt motor has enough power to help you conquer any hill and haul a ton of cargo, but it’s also efficient enough that you can pedal the Camel 88 with almost no assistance at all. And its braking system is designed to handle both a front and rear rack.
In addition to the excellent braking performance, the 88’s frame is made from high-quality carbon fiber, and its fork and rear shock are both derived from Maestro suspension designs. This gives the 88 a great blend of comfort and handling that’s suitable for any riding style or terrain.
The pedaling drivetrain is the Camel 88’s weakest link, as it uses a cadence sensor instead of a torque sensor. Cadence sensors aren’t as responsive as cassettes, and they can be frustrating to use when climbing or sprinting. A torque sensor would have solved this problem and allowed you to fine-tune the Camel’s power output based on your needs.
CU showed strong antifungal activity against Candida albicans, Aspergillus niger and Aspergillus flavus, and it displayed a minimal inhibitory concentration of 0.625 mg/ml against Trichophyton violaceum and 2.5 mg/ml against Microsporum canis. These results suggest that CU could be an effective agent against fungi, and it may be able to replace existing antibiotics in the treatment of fungal diseases. The antimicrobial effects of CU are due to the presence of its salts which prevent the cells of fungi from metabolizing their sugars. In contrast, the cytotoxic effect of CU on fungi is due to its ability to cause plasmolysis and kill the cell. Plasmolysis of fungi is due to the cleavage of DNA and protein molecules. This process is usually caused by enzymatic reactions of specific oxidative enzymes. In addition to this, CU has an antimicrobial impact against bacteria such as E. coli and S. aureus by disc diffusion method. Moreover, CU has a moderate antibacterial impact on Klebsiella pneumoniae and Pseudomonas aeruginosa. This effect is also due to the cytotoxicity of CU against bacterial cell walls.
