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linux kernel rc-core sub maintainer home archives  2018-06-15 what's coming in kernel v4.18 for rc-core in kernel v4.18 the major new feature is ir bpf. ir decoding in bpf kernel v4.18 introduces a new type of bpf program, called bpf_prog_lirc_mode2. this type of program can decode raw ir and report decoded scancodes. this is to support the many lircd.conf rc keymaps which are currently not supported by rc-core. now that the kernel space work is complete, ir-keytable needs to be extended to support bpf type decoders (loading, querying and deattaching) and we need a ne set of ir decoders. i’m currently working to this. the ultimate goal is to support all the keymaps for ir decoding and sending that lircd currently supports, without the need to run a daemon. faster ir decoding the in-kernel ir decoders have always been a little sluggish, since the timeouts they use are far greater than what is actually needed. so, now using ir is much more responsive and keys will less “sticky”. i think this makes a huge difference. other changes there some other minor improvements, such a mce keyboard decoder improvements, and when a lirc device is registered, it reports if is has a transmitter and if it is a raw or scancode receiver (or no receiver at all). share comments 2018-03-19 what's coming in kernel v4.17 for rc-core in kernel v4.17 there are only minor changes. debug the rc_core_debug module parameter for the rc-core modules is gone. debug must be enabled via dynamic debug . minor fixes there are minor fixes to ir-spi transmit and meson-ir timeout handling. imon there is a new driver for the imon station, which is an external usb device (unlike most of the other imon gear). it is a raw ir device, so it does no decoding in hardware. the second new imon feature is a decoder for the imon pad remotes. these remotes have their own protocol, which is decoded by the imon inside, imon vfd or imon knob. i spent a fair amount of time decoding it, and i think this is the first time someone has figured out how it works. ir-keytable has be updated for this feature, which is not done yet. in the mean time, you can use it so: ir-keytable -s rc0 -c -w /lib/udev/rc_keymaps/imon_pad echo imon > /sys/class/rc/rc0/protocols mceusb learning mode and carrier report any mceusb device should have a wideband receiver for learning mode, which was not supported up until now. learning mode should give you a more accurate reading, and can also measure the carrier. the downside is that the wideband receiver only works for short distances, so you have to hold your remote as close as possible to the ir receiver. using ir-ctl -m -r you can enable learning mode and carrier reports. the wideband receiver will remain enabled until you execute ir-ctl -m . share comments 2018-02-10 dumping z8 encore z8f0811 program memory so you have your z8f0811 device from the ‘90s and you’ve misplaced the source code; what do you do? there is a simple method and a more complicated method if read protect was enabled during flash programming, using a raspberry pi as a flash programmer. using debug pin the z8f0811 has debug pin, which controls the ocd interface (which has the descriptive name “on-chip debugger”. one of the commands is read program memory (0bh). since this is a one-pin interface, i connected an arduino and wrote the following program. 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25 26 27 28 29 30 31 32 33 34 35 36 37 38 39 int pin = 3 ; void send_byte ( int b) { digitalwrite( 3 , low); delaymicroseconds( 10 ); for ( int i= 1 ; i< 255 ; i <<= 1 ) { if (b & i) digitalwrite( 3 , high); else digitalwrite( 3 , low); delaymicroseconds( 10 ); } digitalwrite( 3 , high); delaymicroseconds( 10 ); } void setup () { // put your setup code here, to run once: } void loop () { pinmode( 3 , output); digitalwrite( 3 , high); delay( 1 ); digitalwrite( 3 , low); delay( 1 ); digitalwrite( 3 , high); delay( 1 ); send_byte( 0x80 ); send_byte( 0x0b ); send_byte( 0x00 ); send_byte( 0x00 ); send_byte( 0x20 ); send_byte( 0x00 ); pinmode( 3 , input); while ( 1 ) { //delay(1000); } } then i connected my logic analyser to see what came back. it did send 0x2000 bytes – all of them are 0xff though! turns out that the z8f0811 has a feature called rom protect (rp). bypass possible? while searching for a solution for this, i came across this z8f04xx,08xx errata , which says: the read protect (rp) option bit does not prevent flash access when bypassing the flash controller as described in zilog application note an0017 entitled third party flash programming support of the z8 encore!® mcu . user code cannot be read through the on-chip debugger when read protect is enabled. user code can only be read out when bypassing the flash controller. work-around: none now that is interesting! so here we have that document: third party flash programming support for the z8 encore . it describes a method for reading and writing the flash memory of the z8f0811 directly on the pins. implementation (hardware) the first hurdle was to remove the z8f0811 from the board. i tried using a regular soldering iron, and found it impossible. i ended up buying a hot air soldering station, which is much better. having removed it, i then tried various ways of attaching things. the distance between the pins is 0.65mm so it’s very hard to work with. that was until i found this ic test burn-in socket adapter ic ssop34 sop34 to dip34 ots-34-0.65-01 . using this it was a breeze. my arduino did not have enough gpio pins, and i suspected that it couldn’t generate a clock signal (pwm) either. so i used a raspberry pi for this. according to the documentation, the lowest clock rate the z8f0811 supports is 32khz. so on the raspberry pi i use pwm to generate that clock; then i connect that to xin on the z8f0811, and also to another gpio pin on the raspberry pi so i can wait for the rising edge. most other pins need connecting: debug for setting flash bypass, reset for resetting the device after the pwm clock is set up, and all of port a, b, c pins (11 pins). implementation (software) we’ll need to bit-bang various pins so even at 32khz, we need to be very careful about being timely. the only way to do this in linux is by writing a kernel driver, and holding a spinlock (to avoid interrupts). kernel driver and a raspberry pi config . this is built against kernel 4.13-rc4 (simply because i was using that kernel version for testing rc core changes on the raspberry pi, and i knew that that version worked). this is using fedora 26 (armhf). after booting the kernel, you can copy the flash memory using: 1 dd if =/dev/zdumper of=z8f0811.bin bs=8192 count=1 finally presumably suspect the other z8f08xx and z8f04xx devices will work fine too; they need the same pins connected. i have not tested this. i realise this device is a microcontroller and not a microprocessor, but i can’t help but dislike the instruction set. why are there so many addressing modes for 4kb of ram/registers? the disassembly is painful to read and write, as the same register can be access in many different ways. share comments 2018-01-17 ahanix d.vine 5 ir/vfd module this htpc case comes with an ir/vfd module. there used to be a driver for this device in drivers/staging/media/lirc/lirc_sasem.c , but that was removed in kernel v4.12. i’ve since found it on ebay, and here is the result of analysing it, and i’ve written a new driver. in the centre you can see the lcd, which is attached via a header. to the right you can see the ir receiver module. the lcd can be detached using the four screws. the lcd part is a nec µpd16314 vfd (without a backlight). there is also a cyruss cy7c63743 usb microcontroller. this drives the ir decoding and the lcd via its gpio ports. the nec µpd16314 is a hd44780 compatible, which is ubiquitous and well documented. there is a driver for it in mainline, which can control it via gpio ports. so i tried to attach this lcd device to a raspberry pi via its gpi

URL analysis for mess.org

https://www.mess.org/#bypass-possible
https://www.mess.org/#implementation-hardware
https://www.mess.org/2018/03/19/what-s-coming-in-kernel-v4-17-for-rc-core/
http://www.mess.org/2018/02/10/dumping-z8-encore-z8f0811-program-memory/#disqus_thread
https://www.mess.org/2017/12/18/what-s-coming-in-v4-16-for-rc-core/
https://www.mess.org/patch/0001-sasem-remote-controller-lcd.patch
https://www.mess.org/#imon-soundgraph
https://www.mess.org/#remotes-ir-protocol-support
https://www.mess.org/#faster-ir-decoding
https://www.mess.org/archives/2018/06/
https://www.mess.org/#minor-fixes
https://www.mess.org/archives/2018/02/
https://www.mess.org/atom.xml
https://www.mess.org/#end-of-lirc-staging-and-lirc-dev-h
http://www.mess.org/2018/03/19/what-s-coming-in-kernel-v4-17-for-rc-core/#disqus_thread
ebay.co.uk

Whois Information

Whois is a protocol that is access to registering information. You can reach when the website was registered, when it will be expire, what is contact details of the site with the following informations. In a nutshell, it includes these informations;

WHOIS LIMIT EXCEEDED - SEE WWW.PIR.ORG/WHOIS FOR DETAILS

  REFERRER http://www.pir.org/

  REGISTRAR Public Interest Registry

SERVERS

  SERVER org.whois-servers.net

  ARGS mess.org

  PORT 43

  TYPE domain

  REGISTERED unknown

DOMAIN

  NAME mess.org

NSERVER

  NS5.HE.NET 216.66.80.18

  NS1.HE.NET 216.218.130.2

  NS4.HE.NET 216.66.1.2

  NS2.HE.NET 216.218.131.2

  NS3.HE.NET 216.218.132.2

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