The R&SNGA100 DC power supplies are linear, compact and easy to use in diverse scenarios. All models have excellent readback accuracy with a low-current range for demanding measurements. Data logging, arbitrary waveforms, built-in statistics and remote sensing features make the instruments ideal for various bench applications, such as:- R&D;- Creating IoT low power designs - Manufacturing- Education- General purpose use casesEquipped with a number of different remote interfaces, including USB and Ethernet, R&SNGA100 DC power supplies are also great for automated tests. The channel fusion feature extends voltage and current range. Get up to 200 V with the R&SNGA142 in serial mode and up to 12 A with the R&SNGA102 in parallel mode. Advanced protection functions keep devices connected and power supplies safe.Choose the DC power supply for your use case by selecting the base unit and necessary options in our online configurator. This makes the procedure easy and fully price transparent for fast processing of your order request by our authorized distribution partners. Click "configure and quote" to start your configuration.
GDB (BinCD, DjgpD, DosBC, LangT, SrcCD) [FSFman, FSFrc]GDB, the GNU DeBugger, is a source-level debugger for C,C++, & Fortran.GDB can debug both C and C++ programs, and will work with executablesproduced by many different compilers; however, C++ debugging will havesome limitations if you do not use GCC.GDB has a command line user interface, and Emacs has a GDB mode.Two X interfaces (notdistributed or maintained by the FSF) are: gdbtk (FTP it fromftp.cygnus.com in directory `/pub/gdb'); andxxgdb (FTP it from ftp.x.org in directory`/contrib/utilities').Executable files and symbol tables are read via the BFD library, whichallows a single copy of GDB to debug programs with multiple object fileformats (e.g., a.out, COFF, ELF). Other features include a rich commandlanguage, remote debugging over serial lines or TCP/IP, and watchpoints(breakpoints triggered when the value of an expression changes).GDB uses a standard remote interface to a simulator library which (so far)has simulators for theHitachi H8/300, H8/500, Super-H, & Zilog Z8001/2.GDB can perform cross-debugging. To say that GDB targets a platformmeans it can perform native or cross-debugging for it. To say that GDB canhost a given platform means that it can be built on it, but cannotnecessarily debug native programs.
3d object converter 5.001 serial number
Graph size can be controlled by the width and height attributes,which are mandatory, and other tags appropriate to an image can be added - for example, toput a border around the graph, adding border="1" would result in the imagebeing embedded in the page with border="1". Any other HTML4.0 tags that can beapplied to an img or object can be used.Colors in the graph may be one of the following options:One of the fixed values none, black, red, blue, yellow, orange, gray, white, transparent
Specified as #RRGGBB (e.g. #F0FFFF) or rgb() (eg rgb(240,255,100%) - the same color).
Specified as transparent(c, n), where c is a color and n is a percentage specifiying the opacity of the color - 100% is opaque, 0% is transparent.
A pattern, specified as pattern(n, [fg, bg]), where n is the name or URL of a bitmap pattern and the optional fg and bg parameters are the foreground and background colors to use (specified as a fixed color or as #RRGGBB). The pattern may be specified as a URL to a PBM format image, or one of the predefined values bricks, circles, crosshatch, crosshatch30, crosshatch45, fishscales, gray0, gray10, gray15, gray20, gray25, gray30, gray35, gray40, gray45, gray5, gray50, gray55, gray60, gray65, gray70, gray75, gray80, gray85, gray90, gray95, hexagons, horizontal, horizontalsaw, hs_bdiagonal, hs_cross, hs_diagcross, hs_fdiagonal, hs_horizontal, hs_vertical, left30, left45, leftshingle, octagons, right30, right45, rightshingle, scatter1, scatter2, smallfishscales, vertical, verticalbricks, verticalleftshingle, verticalrightshingle, verticalsaw or weave. Bitmap patterns were added in release 2.1.1
A URL may be specified for a color, in which case the library will attempt to load a bitmap (GIF, JPEG or PNG) from the URL and convert it to a java.awt.TexturePaint.
hsl(h, s, l) or hsv(h, s, v) can be used to specify RGB colors using Hue/Saturation/Lightness or Hugh/Saturation/Value. You can also use hsla and hsva if you want to include an alpha value.
cmyk(c, m, y, k) can be used to specify CMYK colors, where c, m, y and k are percentages between 0 and 100% (or values between 0 and 255). For instance, cmyk(255, 0, 0, 100%) is a CMYK color with 100% cyan and black. Note CMYK color requires our PDF Library to be in the classpath. Use of CMYK colors in a format that doesn't support CMYK (e.g. PNG, SVG) is allowed, and they will be converted to the nearest RGB equivalent.
spot(ink, color) can be used to specify a spot or separation color: ink is the name of the ink (quoted, if it contains spaces) and color is the equivalent color in a process colorspace, eg RGB, CMYK or HSL. For example, spot("Pantone Reflex Blue CVC", cmyk(100%, 73%, 0, 2%)) Note spot color requires our PDF Library to be in the classpath. Use of Spot colors in a format that doesn't support them (and only PDF supports them) is allowed, and the process color equivalent will be used: this will probably involve conversion to RGB as described above.
lab(L, a, b) can be used to specify a color in the CIELab colorspace. This is primarily useful when defining spot colors, as many color swatches (e.g. recent Pantone) define their colors in this space. L, a and b are the individual components, with values ranging from 0..255, -128..127 and -128..127. For example, the same 'Pantone Reflex Blue' referenced in the previous example could also be defined as follows: spot("Pantone Reflex Blue CVC", lab(26.18, 18.64, -59.93)) Note CIELab color requires our PDF Library to be in the classpath. Use of Lab colors in a format that doesn't support them (and only PDF supports them) is allowed, and the process color equivalent will be used: this will probably involve conversion to RGB as described above.
For BarSeries only gradient(c1, c2) may be used to draw a gradient from the colors c1 to c2. If you're running Java 1.6 you can specify more than two colors as well as the points where the colors transition: for instance, gradient(red, 5, green, 10, blue, 15) would smoothly transition from the minimum value to red when the value is 5, then to green at 10 and blue at 15. For hard transitions you can specify two close together numbers, eg gradient(green, 5, yellow, 5.001, yellow, 8, red, 8.001) will be green below 5, yellow between 5 and 8 and red above 8. The colors can be specified in RGB or CMYK. Note that gradients with more than 2 colors cannot be used when rendering to PDF.
6. Creating Interactive GraphsIt is possible to create interactive graphs using the Tag Library - by interactive wemean using JavaScript to do rollovers, clicks and so on. These features are not directlyavailable with the XML and API interfaces, because those approaches don't create web pagesdirectly - although the hooks are there.In order to understand this aspect of the library, you need some background on how thegraphs are created. As explained above, the tag library works by parsing the tags, creatingthe graph and storing it in the Servlet Context, then writing some HTML to the page beingcreating which loads that image from the GraphServlet. Adding interactive features to agraph causes an ImageMap to be created as well, using the HTML4.0area tag. This area is associated with the image, and the various polygons inthe imagemap have the appropriate JavaScript added to them.For interactive SVG graphs (added in 2.1), the process is similar but simpler, as theJavaScript/ECMAScript required for interaction is actually embedded in the SVG itself.The XML is almost identical to that used by the bitmap-based interactive graphs - theonly difference is the tag must be embedded directly into thegraph XML, rather than in the PDF page. An example of this can be seen here.The following HTML4.0 attributes can be used on marker, data andlineseries tags:href
target
title
onmouseover
onmouseout
onclick
ondblclick
onmousedown
onmouseup
onmousemove
onkeypress
onkeydown
onkeyup
So, for instance, a bar in a bargraph can be turned into a hyperlink simply by adding anhref to the bfg:data tag.Linegraphs are a little different, because they represent a continuous curve of values.Consequently any HTML4.0 tags in a Line series are applied to the lineseries, ratherthan the data. The Sine curve example shows how thisis done. Two special variables which are defined which allow you to display the value of theline under the mouse pointer - roll the mouse over the approximate line in the example aboveand you will see the values of the curve displayed in a popup. This is done by using thespecial variables seriesx and seriesy. When the Tag Library sees these variables, itreplaces them with a call to a function which will return the values you'd expect.7. Graphs as a Web Service - SOAP and XMLAlthough typically the JSP tags are the best way to add dynamic interactive graphs to your application,this approach will not work for everyone. Those trying to integrate the graphs into a .NET applicationfor instance won't be able to use this approach, and there are many other non-web applications whichwould still like to be able to create graphs on a remote server. 2ff7e9595c
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