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- https://eng.libretexts.org/Bookshelves/Computer_Science/Programming_Languages/x86-64_Assembly_Language_Programming_with_Ubuntu_(Jorgensen)/13%3A_System_Services/13.02%3A_Newline_CharacterAs a refresher, in the context of output, a newline means move the cursor to the start of the next line. Nothing is displayed for the newline, but the cursor is moved to the start of the next line as ...As a refresher, in the context of output, a newline means move the cursor to the start of the next line. Nothing is displayed for the newline, but the cursor is moved to the start of the next line as shown. The reader may have seen instances where a text file is downloaded from a web page and displayed using older versions Windows Notepad (pre-Windows 10) where all the formatting is lost and it looks like the text is one very long line.
- https://eng.libretexts.org/Bookshelves/Computer_Science/Programming_Languages/x86-64_Assembly_Language_Programming_with_Ubuntu_(Jorgensen)/09%3A_Process_Stack/9.03%3A_Stack_ImplementationThe rsp register is used to point to the current top of stack in memory. In this architecture, as with most, the stack is implemented growing downward in memory.
- https://eng.libretexts.org/Bookshelves/Computer_Science/Programming_Languages/x86-64_Assembly_Language_Programming_with_Ubuntu_(Jorgensen)/11%3A_Macros/11.02%3A_Multi-Line_MacrosMulti-line macros can include a varying number of lines (including one). The multi-line macros are more useful and the following sections will focus primarily on multi-line macros.
- https://eng.libretexts.org/Bookshelves/Computer_Science/Programming_Languages/x86-64_Assembly_Language_Programming_with_Ubuntu_(Jorgensen)/15%3A_Stack_Buffer_Overflow/15.03%3A_Section_3-When the first byte of the 8 byte address is altered, the program will not be able to return to the calling routine and will likely crash. If the bytes of the rbp are corrupted, the program may fail i...When the first byte of the 8 byte address is altered, the program will not be able to return to the calling routine and will likely crash. If the bytes of the rbp are corrupted, the program may fail in some way, but it will be different than the immediate crash caused by the corrupted rip. Once the rip location has been determined, the 8 bytes that are entered there will need to be the address of where the injected code is in the stack where the user input was stored.
- https://eng.libretexts.org/Bookshelves/Computer_Science/Programming_Languages/x86-64_Assembly_Language_Programming_with_Ubuntu_(Jorgensen)/12%3A_Functions/12.09%3A_SummaryIf arguments are passed on the stack, the callee must save rbp to the stack and move the value of rsp into rbp. The quadword at [rbp] holds the previous value of rbp as it was pushed; the next quadwor...If arguments are passed on the stack, the callee must save rbp to the stack and move the value of rsp into rbp. The quadword at [rbp] holds the previous value of rbp as it was pushed; the next quadword, at [rbp+8], holds the return address, pushed by the call. The callee, if it wishes to return a value to the caller, should leave the value in al, ax, eax, rax, depending on the size of the value being returned.
- https://eng.libretexts.org/Bookshelves/Computer_Science/Programming_and_Computation_Fundamentals/Principles_of_Computer_System_Design_(Saltzer_and_Kaashoek)/03%3A_Atomicity_-_All-or-nothing_and_Before-or-after/3.02%3A_AtomicityDefinition of all-or-nothing atomicity and before-and-after atomicity. Examples of their use in layered applications and in concurrent threads.
- https://eng.libretexts.org/Bookshelves/Industrial_and_Systems_Engineering/Chemical_Process_Dynamics_and_Controls_(Woolf)/10%3A_Dynamical_Systems_Analysis
- https://eng.libretexts.org/Bookshelves/Industrial_and_Systems_Engineering/Chemical_Process_Dynamics_and_Controls_(Woolf)/12%3A_Multiple_Input_Multiple_Output_(MIMO)_Control/12.04%3A_Neural_Networks_for_automatic_model_constructionNeural networks, which were initially designed to imitate human neurons, work to store, analyze, and identify patterns in input readings to generate output signals. In chemical engineering, neural net...Neural networks, which were initially designed to imitate human neurons, work to store, analyze, and identify patterns in input readings to generate output signals. In chemical engineering, neural networks are used to predict the ouputs of systems such as distillation columns and CSTRs. This article will discuss how neural networks work, the advantages and disadvantages of neural networks, and some common applications of the networks.
- https://eng.libretexts.org/Bookshelves/Industrial_and_Systems_Engineering/Chemical_Process_Dynamics_and_Controls_(Woolf)/04%3A_Piping_and_Instrumentation_Diagrams/4.06%3A_Regulatory_Agencies_and_ComplianceRegulatory agencies govern various sections of chemical plants from emissions and water treatment to personnel behaviors and company policy. Understanding of the types of organizations that demand hig...Regulatory agencies govern various sections of chemical plants from emissions and water treatment to personnel behaviors and company policy. Understanding of the types of organizations that demand high performance from chemical plants on a national and local level are extremely important for the safety of the employees, community and environment.
- https://eng.libretexts.org/Bookshelves/Electrical_Engineering/Electro-Optics/Book%3A_Ultrafast_Optics_(Kaertner)/09%3A_Noise_and_Frequency_Control/9.02%3A_Noise_in_Mode-locked_Lasers\[\begin{array} {rcl} {S_I (\omega)} & = & {\dfrac{(\eta e N_0)^2}{T_R} ||a_0|^2 (\omega)|^2 \sum_{k = -\infty}^{+ \infty} e^{-j \omega k T_R} \langle e^{-j\omega (\Delta t (k T_R) - \Delta t (0))} \r...\[\begin{array} {rcl} {S_I (\omega)} & = & {\dfrac{(\eta e N_0)^2}{T_R} ||a_0|^2 (\omega)|^2 \sum_{k = -\infty}^{+ \infty} e^{-j \omega k T_R} \langle e^{-j\omega (\Delta t (k T_R) - \Delta t (0))} \rangle,} \\ {} & = & {\dfrac{(\eta e N_0)^2}{T_R} ||a_0|^2 (\omega)|^2 \sum_{k = -\infty}^{+ \infty} e^{-j \omega k T_R} e^{-\tfrac{1}{2}[(\omega \tau)^2 \sigma_t (kT_R)]}} \end{array} \nonumber \]
- https://eng.libretexts.org/Bookshelves/Electrical_Engineering/Electro-Optics/Book%3A_Ultrafast_Optics_(Kaertner)/11%3A_Ultrafast_Measurement_Techniques/11.01%3A_Pump_Probe_MeasurementsLets denote \(S_{in} = S_0 + \delta S\) as the probe pulse energy, where \(S_0\) is the average value and \(\delta_s\) a low frequency noise of the pulse source and \(S(t)\) is the probe signal transm...Lets denote \(S_{in} = S_0 + \delta S\) as the probe pulse energy, where \(S_0\) is the average value and \(\delta_s\) a low frequency noise of the pulse source and \(S(t)\) is the probe signal transmitted through the test device. This can be achieved by using orthogonal pump and probe polarization as shown in Figure 11.2 or by chopping pump and probe at different frequencies and detecting at the difference frequency, see Figure 11.3.
