craiganderson

is there a way to add music to "platform category" screens? thanks either way

here ya go..............

Not as good as yours....but have this to share...just fyi

thanks a ton! if you are really bored and could do an "Others" platform category......that would be great thanks either way in advance craig

All fair points...but I think I kinda like seeing the "real" controller as well....... still a WIP..........

I think I will add pic of the "real" controller as well.....

Just sharing. Below is the PSD file..... Game Controller Template_.psd

i have the marquee option working on my second screen. awesome! it is currently set up by romname.png is there any way to do this on a platform level (i.e. all 3DO games display same marquee image)? thanks either way

i do not know how to make one.....so if you ever feel the urge to do it......i would be grateful thanks either way....... craig

Hello. Thanks in advance. Does anybody know of a program/plugin/photoshop PSD that could be used to create images of xbox360 controller and how it applies to certain platform (NES, genesis etc) something like the pic below? thank you very much craig

(in launchbox)right click the system/platform and select edit down at the bottom is a category option

thank you. sorry i did not figure that out......

how to add new categories? (i.e. console, handheld, foreign handhelds etc) thanks in advance. great update today!!!

Pel Varazdin Orao GENERIC Tape Covers View File Pel Varazdin Orao GENERIC Tape Covers Submitter craiganderson Submitted 05/12/2017 Category Game Box Art  

VTech Socrates Game Snaps VTech Socrates GamePlay Snaps.zip

VTech Socrates Cartridges View File VTech Socrates Cartridges Submitter craiganderson Submitted 05/04/2017 Category Game Cart Images  

Here is my collection of Sega Pico Boxes (combined with title screens, carts, etc when I could not find a box). 293 files https://mega.nz/#F!L1BGQB6Y!B3qu61ll3v-9FpWCMrfeZw let me know if you see any mistakes thanks

RocketLauncher is awesome....once you get to know it!

Did you have to add any unique command line options? if so...please share. thanks

good to know. i like using RocketLauncher because it does some nice things like hiding the desktop, bezels, fades (if you want them.) just fyi........here is the how i send my commands to RocketLauncher

Here is the chip-8 stuff. I do not know how to upload to this forum yet....... (let me know if i forgot to include anything) (i am launching vie ROCKETLAUNCHER. The Emulator is FISHandChips (and is included in download) The emulator (FISH AND CHIPS) should be set to MODE:SCHIP. Goto EDIT --> MODE https://mega.nz/#F!OwB12bZC!bz47A8DG_0jcMf7vdIpgsg

i can upload to share if anybody wants it emulator= fish and chips launching via RocketLauncher https://en.wikipedia.org/wiki/CHIP-8 CHIP-8 is an interpreted programming language, developed by Joseph Weisbecker. It was initially used on the COSMAC VIP and Telmac 1800 8-bitmicrocomputers in the mid-1970s. CHIP-8 programs are run on a CHIP-8 virtual machine. It was made to allow video games to be more easily programmed for said computers. Roughly twenty years after CHIP-8 was introduced, derived interpreters appeared for some models of graphing calculators (from the late 1980s onward, these handheld devices in many ways have more computing power than most mid-1970s microcomputers for hobbyists). An active community of users and developers existed in the late 1970s, beginning with ARESCO's "VIPer" newsletter whose first three issues revealed the machine code behind the CHIP-8 interpreter.[1] Contents [hide] 1CHIP-8 applications 2CHIP-8 today 3Virtual machine description 3.1Memory 3.2Registers 3.3The stack 3.4Timers 3.5Input 3.6Graphics and sound 3.7Opcode table 4Notes 5Additional Resources CHIP-8 applications[edit] There are a number of classic video games ported to CHIP-8, such as Pong, Space Invaders, Tetris, and Pac-Man. There's also a random maze generator available. These programs are reportedly placed in the public domain, and can be easily found on the Internet. CHIP-8 today[edit] There is a CHIP-8 implementation for almost every platform, as well as some development tools. Despite this, there are only a small number of games for the CHIP-8. CHIP-8 has a descendant called SCHIP (Super Chip), introduced by Erik Bryntse. In 1990, a CHIP-8 interpreter called CHIP-48 was made for HP-48 graphing calculators so that games could be programmed more easily. Its extensions to CHIP-8 are what became known as SCHIP. It features a larger resolution and several additional opcodes which make programming easier. If it were not for the development of the CHIP-48 interpreter, CHIP-8 would not be as well known today. The next most influential developments (which popularized S/CHIP-8 on many other platforms) were David Winter's emulator, disassembler, and extended technical documentation. It laid out a complete list of undocumented opcodes and features, and was distributed across many hobbyist forums. Many emulators had these works as a starting point. While CHIP-8 and SCHIP have commonly been implemented as emulators, a pure hardware implementation (written in the Verilog language) also exists for certain FPGA boards. Virtual machine description[edit] Memory[edit] CHIP-8 was most commonly implemented on 4K systems, such as the Cosmac VIP and the Telmac 1800. These machines had 4096 (0x1000) memory locations, all of which are 8 bits (a byte) which is where the term CHIP-8 originated. However, the CHIP-8 interpreter itself occupies the first 512 bytes of the memory space on these machines. For this reason, most programs written for the original system begin at memory location 512 (0x200) and do not access any of the memory below the location 512 (0x200). The uppermost 256 bytes (0xF00-0xFFF) are reserved for display refresh, and the 96 bytes below that (0xEA0-0xEFF) were reserved for call stack, internal use, and other variables. In modern CHIP-8 implementations, where the interpreter is running natively outside the 4K memory space, there is no need for any of the lower 512 bytes memory space to be used, but it is common to store font data in those lower 512 bytes (0x000-0x200). Registers[edit] CHIP-8 has 16 8-bit data registers named from V0 to VF. The VF register doubles as a flag for some instructions, thus should avoid using. In addition operation VF is for carry flag. While in subtraction, it is the "not borrow" flag. In the draw instruction the VF is set upon pixel collision. The address register, which is named I, is 16 bits wide and is used with several opcodes that involve memory operations. The stack[edit] The stack is only used to store return addresses when subroutines are called. The original 1802 version allocated 48 bytes for up to 12 levels of nesting; modern implementations normally have at least 16 levels. Timers[edit] CHIP-8 has two timers. They both count down at 60 hertz, until they reach 0. Delay timer: This timer is intended to be used for timing the events of games. Its value can be set and read. Sound timer: This timer is used for sound effects. When its value is nonzero, a beeping sound is made. Input[edit] Input is done with a hex keyboard that has 16 keys which range from 0 to F. The '8', '4', '6', and '2' keys are typically used for directional input. Three opcodes are used to detect input. One skips an instruction if a specific key is pressed, while another does the same if a specific key is not pressed. The third waits for a key press, and then stores it in one of the data registers. Graphics and sound[edit] Original CHIP-8 Display resolution is 64×32 pixels, and color is monochrome. Graphics are drawn to the screen solely by drawing sprites, which are 8 pixels wide and may be from 1 to 15 pixels in height. Sprite pixels that are set flip the color of the corresponding screen pixel, while unset sprite pixels do nothing. The carry flag (VF) is set to 1 if any screen pixels are flipped from set to unset when a sprite is drawn and set to 0 otherwise. This is used for collision detection. As previously described, a beeping sound is played when the value of the sound timer is nonzero. Opcode table[edit] CHIP-8 has 35 opcodes, which are all two bytes long and stored big-endian. The opcodes are listed below, in hexadecimal and with the following symbols: NNN: address NN: 8-bit constant N: 4-bit constant X and Y: 4-bit register identifier PC : Program Counter I : 16bit register (For memory address) (Similar to void pointer)

either way works for me.