Ib physics experiments manual#

Ib physics experiments manual#

Advanced Physics - Mechanics with Vernier Lab Manual Experiments 1 You may edit the lab to meet your specific needs and make copies for use with your classes. After you submit a SIM request to borrow equipment or obtain the services of the Mobile Educator, then you will be emailed both the student and teacher versions of the experiment in Word format. The webpage provides a description of the experiment with correlations to state and national science standards. Go Direct В® Sound Sensor, Go Direct В® Temperature ProbeДirections:В Click on the'Experiment Title' link to the lab that you wish to preview. Go Direct В® Light and Color Sensor, Optics Expansion Kit, Combination Track/Optics Bench Go Direct В® Light and Color Sensor, Go Direct В® Rotary Motion Sensor, Optics Expansion Kit, Polarizer/Analyzer for Optics Expansion Kit, Dynamics Cart and Track System Polarization of Light (Rotary Motion Sensor) Go Direct В® Light and Color Sensor, Optics Expansion Kit, Polarizer/Analyzer for Optics Expansion Kit, Combination Track/Optics Bench Go Direct В® Current Probe, Go Direct В® Voltage Probe, Extech Digital DC Power Supply, Rotary Motion Motor Kit Go Direct В® 3-Axis Magnetic Field Sensor, Extech Digital DC Power Supply Go Direct В® Voltage Probe, Vernier Circuit Board 2 Go Direct В® Current Probe, Go Direct В® Voltage Probe, Extech Digital DC Power Supply, Vernier Circuit Board 2 Go Direct В® Force and Acceleration Sensor, Go Direct В® Motion Detector Go Direct В® Force and Acceleration Sensor Go Direct В® Photogate, Ultra Pulley Attachment Go Direct В® Projectile Launcher, Projectile Stop, Time of Flight Pad, Independence of Motion Accessory Go Direct В® Motion Detector, Dynamics Cart and Track System with Go Direct В® Sensor Cart, Springs SetДynamics Cart and Track System with Go Direct В® Sensor Cart Physics with Vernier Lab Manual Experiments 1

Public Safety and Emergency Medicine TrainingДirections:В Click on the'Experiment Title' link to the lab that you wish to preview.State License/Credential Requirements by Program.

We believe that the proposed setup can be exploited as a predictive tool to estimate optimum parameters in NP-bound RBCs for better targeting procedures in tissue microvasculature. All the findings agree with in vivo and in vitro experimental observations. The results illustrate that changing the interaction between the NPs and RBCs can control the desorption process. Larger NPs have a higher propensity to be disconnected from the RBC surface. RBCвЂ“RBC interaction can also significantly boost shear-induced particle detachment. In shear flow, NP detachment increases upon increasing the shear rate.

The numerical simulations are performed for various NP sizes and RBCвЂ“NP adhesion strengths.

The proposed algorithm simulates nanoparticle (NP) dislodgment from the RBC surface in shear flow and biomimetic microfluidic channels. To shed light on the underlying physics in this type of drug delivery system, we present a computational platform in the context of the lattice Boltzmann method, spring connected network, and frictional immersed boundary method. In these studies, the impact of NC size, NC surface chemistry, and shear rate on the delivery process and biodistribution has been widely explored. Several experimental studies have already approved that cellular hitchhiking onto the RBC membrane can improve the delivery of a wide range of NCs in mice, pigs, and ex vivo human lungs. Red blood cell (RBC)-hitchhiking, in which different nanocarriers (NCs) shuttle on the erythrocyte membrane and disassociate from RBCs to the first organ downstream of the intravenous injection spot, has recently been introduced as a solution to enhance target site uptake.