The main goal of the game is to remove all segments of marbles before they reach the temple at the end of the path. Otherwise the temple is being destroyed and the player loses a life. The steering is by the joystick plugged into port number one.
The player takes his aim by moving the joystick left and right and shoots a new marble by pressing the fire. He can swap the current marble with the next one by moving the joystick up or down. The player may pause the game by pressing the space bar on the keyboard.
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@amarok - Great game! As an ABBUC member, I have been playing your game for a while now. I am glad to see other people are now able to play the game. I was impressed at how responsive the joystick was for setting your marble. I am used to playing Zuma with a mouse so I was not sure how well a joystick would work.
I specifically did not want to use the readily available One-Wire-Libraries as they tend to be bloated and heavily rely on the delay function, which is fine if you are doing little else with your chip but not else. Since I have multiple sensors to read out (not yet but as soon as I got the drivers working) have to do some post processing on the raw data (i.e. put some sort of math to it) and transmit that data on a usually slow interface (I2C, Serial, you name it), which all takes time (and all that [periodically and as fast as possible of-course] on a poor 8-Bit Micro that runs at a underwhelming 16MHz...), I decided to keep polling and delay()-uses to a minimum and rather rely (heavily?) on a timer interrupt and a series of Statemachines...
On single-board computers such as the Raspberry Pi, 1-Wire network read is often possible using kernel drivers that offer native support. The w1-gpio, w1-gpio-therm, and w1-gpio-custom kernel mods are included in the most recent distributions of Raspbian and are quite popular, as they allow interfacing with a subset of 1-Wire device with no additional hardware. Currently, however, they have limited device support, and have bus size limitations in software.
ChargeLab provides an OCPP-compliant software back-end for EV charger management. ChargeLab's CSMS is the preferred platform of leading EV charger manufacturers, including ABB and Eaton. Resellers and site hosts can manage their portfolio of chargers via ChargeLab's dashboard, while EV drivers get a seamless user experience in-app or on the web.
Clenergy EV is a software driven electric vehicle charge point infrastructure company and advocates of the Open Charge Point Protocol (OCPP). We have developed our own IP and Charge Point Management software to run our charger network.This solution allows our clients total flexibility, choice and control over who installs and supplies their charge point estates, unlike closed network competitors.The Clenergy EV app enables electric vehicle drivers access to a growing network of charge points, enabling them to continue on their journey with complete visibility of costs in one application and makes use of one card to pay for charge via contactless RFID card.
EV Connect is on a mission to build a better planet by enabling electricity as a transportation fuel. Through its innovative and open charging cloud platform, EV Connect simplifies the set-up, management, and optimization of charging services with premium customer support, from installation to the driver experience. EV Connect guides companies of all sizes in managing networks of chargers and delivers a seamless EV charging experience that empowers drivers.
GreenFlux offers a cloud-based SaaS platform helping operators effectively manage and scale their EV charging infrastructure and EV driver subscription networks. The platform enables optimal asset utilization via industry-leading smart charging capabilities, provides flexible payment, billing, and roaming options, and integrates easily with other systems via standard APIs. GreenFlux empowers charge point operators and mobility service providers to scale their e-mobility operations, extend their network reach, and offer outstanding experiences to drivers. greenflux.com
We are a Brazilian startup entering the electric mobility market in the testing and implementation phase of our Central System with customers. We are also developing a mobile app for electric vehicle drivers and charging station owners.
My wish is that someone makes modern OS drivers for the image writer II so I can use it on windows and linux systems! That would be fun. And I have given up hope finding the individual sheetfeeder addon.
For flashing the dongle using windows you need the TI Flash Programmer (opens new window) (version 1, not version 2) and the Cebal drivers from this TI site (opens new window) (available in section Software).Extract and install the TI Flash Programmer, connect the CC-Debugger trough USB, and with the dongle using the connector board. In the Windows device manager update the device driver with the Cebal drivers. Now the TI Flash Programmer should show your device. Select the firmware file, flash and verify your dongle firmware.
A larger version of the 5E called the 586-Engine-P (5P) is now available. The 5P integrates a variety of features that makes it a more powerful, stand-alone product. It has its own onboard RS232 drivers and voltage regulators, allowing it to be deployed totally independent of any motherboard support. The 5P also features a new, ultra-high speed 4 ch. 1 MHz 16-bit ADC. The FPU provides arithmetic instructions to handle numeric data and transcendental functions for sine, tangent, logarithms, etc, making this controller useful for intensive computational applications. It is estimated to be 10-50 times faster than software-emulate on an 8/16-bit controller without a FPU. The 586-Engine supports up to 15 external interrupts. There are a total of seven timers, including one programmable interval timer (PIT) that provides three 16-bit PIT timers and three 16-bit GP timers, plus a software timer. These timers can support timing or counting external events. The software timer provides a very efficient hardware time base with microsecond resolution. A real-time clock (RTC) provides time-of-day, 100-year calendar and 114 bytes of battery backed RAM. Two industrial-standard 16550-compatible UARTs support baud rates up to 1.152 M baud. One synchronous serial interface (SSI) supports full-duplex bi-directional communication. One additional optional UART (SCC2691) can be installed. The 586-Engine boots from on-board 256K 16-bit ACTF Flash, and supports up to 256K 16-bit battery-backed SRAM. SDRAM and DMA are not supported. Up to 1GB memory expansion can be added with MemCard-A and PCMCIA ATA Flash cards.
In place of the 8-bit memory bus on the basic IE, the IE-L has 16-bit memory SRAM/FLash that improves performance dramatically. The IE-L also has on-board voltage regulators and RS232 line drivers, so that it can be used as an effective stand-alone controller.
So how does these numbers compare to the noise of an E300-8D being powered up? Well, there is two stages of noise. The noise produced while the server is booting up and the second stage is when OS drivers are being loaded and the OS starts to control the speed of the fans and therefore, also the noise of the fans. As for noise levels during boot, they were between 42 and 43 decibel and as soon as ESXi has been loaded up the noise levels dropped to 29-30db. Still a lot louder than ambient room noise, but much less than a lot of other IT equipment.
The link layer handles basic communication functions such as bus reset,presence detect and bit transfer operations.It is the only hardware-dependent layer in Zephyr.This layer is supported by a driver using the Zephyr UART interface,which should work on most Zephyr platforms.In the future, a GPIO/Timer based driver and hardware specific drivers mightbe added.
While I was at TRW Advanced Product Labs in 1974, John Liberty implemented a dual processor 6800 (each CPU used one half the 1Mhz symmetric bus clock to do its memory access); one CPU did general purpose work, the other often did real time single bit I/O streams to things like read/write magnetic tape heads. A fellow named Dick Moran wrote the multitasking, real multiprocessor "BKOS" (Basic Kernal OS) that handled both CPUs using atomic locks and the whole bit. These CPU boards went on to become the minimalist hardware core of May Company POS terminals. (My job was to use this OS to write the real time mag tape drivers and the print head drivers for a 7 pin vertical printer that swept across the paper roll to produce printed text for sales receipts. Even with holly borders at Christmas :).
They all started working on Vulkan drivers around the same time in 2016. And yet, none of them have managed to deliver a compliant and stable Vulkan Android driver, except for the rare few NVIDIA devices.
The CPU itself, while very crucial for performance and the main bottleneck for now, is less important than the GPU, for the reasons previously mentioned (the drivers).The same rules as on PC apply here: 6 cores or more is preferred, and the highest possible IPC is strongly recommended. A Snapdragon 8 Gen 2 can be twice as fast as a Snapdragon 865. be457b7860
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