Have you filed a personal injury claim? Or, are you considering doing so? You may be wondering what you need to be successful. What documentation or proof will you need to show?
When fighting a personal injury case, a lawyer will have many curve balls thrown at him. That means that only a lawyer with an extensive history in the field of personal injury law will be able to be successful at trial. Look for a lawyer with lots of experience behind him, like those at the Abel Law Firm.
When searching for a lawyer to represent you in a personal injury case, you should first be careful to avoid “ambulance chasers”. Check with your local bar association for a list of reputable attorneys. Then outline the details of your case to the prospective attorney and follow any advice you are given.
One of the most common types of personal injury lawsuits involve injury from a defective product. Products on the market are required to be safe for use, and when it can be proven a product is not the manufacturer can be held responsible. You and your lawyer have the obligation of proving the product is not safe.
If you are looking for a reputable personal injury lawyer, investigate what professional groups and organizations are located close to you. A lot of lawyers are dedicated to giving back to the community and thus get involved with organizations in their area. These lawyers are worth hiring and normally come highly recommended.
Doing things the right way and in the right order is incredibly important when you’ve suffered a personal injury. Going about things the wrong way may have a negative impact on your case. Reading up on personal injury is the perfect starting point. Your lawyer will be able to give you the proper guidance and advice regarding your case.
It is interesting to note that while FDTD is based on Maxwell’s equations which describe the behavior and effect of electromagnetism, the term “FDTD” itself was coined to describe the algorithm developed by Kane S. Yee in computational electromagnetism. Maxwell’s equations were based on the work of James Clerk Maxwell, a Scottish mathematician who published its initial form in 1861. Yee, born in China but acquired PhD Applied Mathematics from the University of California in Berkely, described his algorithm in 1966.
Prior to the Yee algorithm, FDTD had been used to solve problems in computational fluid dynamics. In Yee’s work, he suggested a novel way of applying FDTD operators on staggered grids for each of the vector field components in Maxwell’s equations. However, the term finite-difference time-domain (FDTD) itself was coined in by a professor Allen Taflove from the Northwestern University’s McCormick School of Engineering located in Illinois. He had published a paper on the August 1980 IEEE Trans. Electromagnetic Compatibility issue entitled “Application of the finite-difference time-domain method to sinusoidal steady-state electromagnetic penetration problems.”
It was only in 1990 that FDTD techniques became popular in dealing with problems concerning interactions of electromagnetic waves, mostly because of the rise of wireless communication devices, but it is also used to model applications in the fields of geophysics and biomedical imaging and the convenience of computers equipped with fast processors and large memories. There are numerous developers for FDTD application software, including at least 27 which are proprietary, 8 which are open access, and two freeware.
The finite-difference time dimension (FDTD) method for simulating computational electromagnetism is considered the simplest and most efficient way to model the effects of electromagnetism on a certain material or object. The most commercial use of the FDTD model is in mobile communication systems, which makes use of radio frequencies, so engineers have to be able to project how the device will most likely operate in the real world by running simulations. Another application for FDTD is in fiber optics, which is also a technology that relates to communication, and there is an increasing interest in its use in nanotechnology. In a very real way, the FDTD method is used to design and improve the mobile and fixed communication technology we have today.
In terms of scalability, the FDTD method proves robust, merely requiring additional time to do the computation with no changes in the formula. However, while it is a relatively simple method, it requires fine grids to develop a model. FDTD does require a lot of computations which increase exponentially with the number of elements. In order to do an FDTD model, one will require a powerful computer with a lot of memory. It is recommended that a computer running a graphical processing unit (GPU) processor, which is specifically designed to handle large amounts of graphical data in parallel, which is exactly what is needed. How long it takes to complete a simulation will depend on the number of elements in an FDTD simulation and processing speed of the computer. In general, an FDTD model requires 30 bytes of memory per Yee cell and 80 operations per cell, per time step.
Suffering injuries in a truck accident can be a devastating experience to go through. The fact of the matter is that truck accident victims are rarely in a position to be able to afford the costs of medical treatment, loss of income, or other expenses that they may have to deal with as a result of their injuries. For this reason, truck accident victims are often in a position where pursuing compensation from those responsible for their injury may be the only way to get their lives back together.
A recent case from Texas illustrates the ways in which a personal injury suit for truck accident damages can help those whose lives have been impacted by this type of situation. The family of Daniel Rhodes, who died in a truck accident in 2011, was represented by attorney Jim Hart of the Williams Kherkher law firm in Houston, Texas. Hart was able to successfully argue that the companies for which the driver of the truck was working had failed to train him properly, leading to the tragic loss of Daniel Rhodes’ life after the truck driver attempted a dangerous maneuver in trying to return to the road.
The jury in the case found in favor of the plaintiffs and awarded a total of damages in the amount of $11 million, though the two parties afterwards settled out of the court for an undisclosed sum. Nevertheless, this case illustrates how critical the role of a qualified legal professional can be in helping the victims of truck accidents to fight for justice.
Electromagnetism is a fundamental force in nature that establishes the internal properties of all things on Earth. It is a phenomenon that is manifested in the interrelationship between electricity and magnetism, and the interaction of electrons and photons at the atomic and molecular level. The theory confirms that one can be produced by the other and also explains the nature of light.
Electromagnetism is a relatively modern concept. Prior to the 19th century, scientists believed that magnetism and electricity were distinct forces. It was not until scientists from Denmark (Hans Christian Ørsted), France (André-Marie Ampère) and England (Michael Faraday) worked out the dynamics that inextricably linked electricity and magnetism that the idea it was a single force piqued scientific interest. This was formally synthesized in 1865 into the electromagnetic theory by Scottish mathematician and physicist James Clark Maxwell, who had been tasked to transcribe Faraday’s experiments in electricity and magnetism into mathematical terms.
In his set of equations, Maxwell demonstrated that electricity and magnetism traveled in distinct waves through space, and that light itself is the result of the undulations of the electromagnetic waves which travelled at the same velocity as light. Together, electricity, magnetism, and light comprise the electromagnetic field.
However, Maxwell’s publication only became accepted outside of England when Heinrich Hertz, a German physicist, verified his equations in 1886. To add insult to injury, it was only in 1905 when the Theory of Relativity proposed by Albert Einstein that it cemented the notion that electricity and magnetism were two sides of the same coin, although they are by no means the same force.
The significance of the electromagnetic theory is that it became the basis for many of the theories in advanced physics, including quantum mechanics, which speculates on the properties of nano particles in relation to the physical world. Because these particles are so small, they can only be detected by how it affects the electromagnetic field.