/*
* Check that the string set/get methods work
*/
void DmxBufferTest::testStringGetSet() {
const string data = "abcdefg";
DmxBuffer buffer;
uint8_t *result = new uint8_t[data.length()];
unsigned int size = data.length();
// Check that setting works
OLA_ASSERT_TRUE(buffer.Set(data));
OLA_ASSERT_EQ(data.length(), (size_t) buffer.Size());
OLA_ASSERT_EQ(data, buffer.Get());
buffer.Get(result, &size);
OLA_ASSERT_EQ(data.length(), (size_t) size);
OLA_ASSERT_EQ(0, memcmp(data.data(), result, size));
// Check the string constructor
DmxBuffer string_buffer(data);
OLA_ASSERT_TRUE(buffer == string_buffer);
// Set with an empty string
string data2;
size = data.length();
OLA_ASSERT_TRUE(buffer.Set(data2));
OLA_ASSERT_EQ(data2.length(), (size_t) buffer.Size());
OLA_ASSERT_EQ(data2, buffer.Get());
buffer.Get(result, &size);
OLA_ASSERT_EQ(data2.length(), (size_t) size);
OLA_ASSERT_EQ(0, memcmp(data2.data(), result, size));
delete[] result;
}
/*
* Send 112 channels worth of data
* @param buf a DmxBuffer with the data
*/
int MilInstWidget1463::Send112(const DmxBuffer &buffer) const {
unsigned int channels = std::min((unsigned int) DMX_MAX_TRANSMIT_CHANNELS,
buffer.Size());
uint8_t msg[channels * 2];
for (unsigned int i = 0; i <= channels; i++) {
msg[i * 2] = i + 1;
msg[(i * 2) + 1] = buffer.Get(i);
OLA_DEBUG << "Setting " << (i + 1) << " to " <<
static_cast<int>(buffer.Get(i));
}
return m_socket->Send(msg, (channels * 2));
}
/**
* Send individual messages (one slot per message) to a set of targets.
* @param dmx_data the DmxBuffer to send
* @param group the OSCOutputGroup with the targets.
* @param osc_type the type of OSC message, either "i" or "f"
*/
bool OSCNode::SendIndividualMessages(const DmxBuffer &dmx_data,
OSCOutputGroup *group,
const string &osc_type) {
bool ok = true;
const OSCTargetVector &targets = group->targets;
vector<SlotMessage> messages;
// We only send the slots that have changed.
for (unsigned int i = 0; i < dmx_data.Size(); ++i) {
if (i > group->dmx.Size() || dmx_data.Get(i) != group->dmx.Get(i)) {
SlotMessage message = {i, lo_message_new()};
if (osc_type == "i") {
lo_message_add_int32(message.message, dmx_data.Get(i));
} else {
lo_message_add_float(message.message, dmx_data.Get(i) / 255.0f);
}
messages.push_back(message);
}
}
group->dmx.Set(dmx_data);
// Send all messages to each target.
OSCTargetVector::const_iterator target_iter = targets.begin();
for (; target_iter != targets.end(); ++target_iter) {
OLA_DEBUG << "Sending to " << (*target_iter)->socket_address;
vector<SlotMessage>::const_iterator message_iter = messages.begin();
for (; message_iter != messages.end(); ++message_iter) {
std::stringstream path;
path << (*target_iter)->osc_address << "/" << message_iter->slot + 1;
int ret = lo_send_message_from((*target_iter)->liblo_address,
m_osc_server,
path.str().c_str(),
message_iter->message);
ok &= (ret > 0);
}
}
// Clean up the messages.
vector<SlotMessage>::iterator message_iter = messages.begin();
for (; message_iter != messages.end(); ++message_iter) {
lo_message_free(message_iter->message);
}
return ok;
}
bool StreamingClient::SendDmx(unsigned int universe,
const DmxBuffer &data) {
if (!m_stub || !m_socket->ValidReadDescriptor())
return false;
// We select() on the fd here to see if the remove end has closed the
// connection. We could skip this and rely on the EPIPE delivered by the
// write() below, but that introduces a race condition in the unittests.
m_socket_closed = false;
m_ss->RunOnce(0, 0);
if (m_socket_closed) {
Stop();
return false;
}
ola::proto::DmxData request;
request.set_universe(universe);
request.set_data(data.Get());
m_stub->StreamDmxData(NULL, &request, NULL, NULL);
if (m_socket_closed) {
Stop();
return false;
}
return true;
}
bool SendDMX(unsigned int universe_id, uint8_t priority,
const DmxBuffer &buffer) {
OLA_ASSERT_EQ(TEST_UNIVERSE, universe_id);
OLA_ASSERT_EQ(ola::dmx::SOURCE_PRIORITY_MIN, priority);
OLA_ASSERT_EQ(string(TEST_DATA), buffer.Get());
m_dmx_set = true;
return true;
}
/**
* Send DMX
* @param buffer the DMX data
*/
bool RobeWidgetImpl::SendDMX(const DmxBuffer &buffer) {
// the data is 512 + an extra 4 bytes
uint8_t output_data[DMX_FRAME_DATA_SIZE];
memset(output_data, 0, DMX_FRAME_DATA_SIZE);
unsigned int length = DMX_UNIVERSE_SIZE;
buffer.Get(output_data, &length);
return SendMessage(CHANNEL_A_OUT,
reinterpret_cast<uint8_t*>(&output_data),
length + 4);
}
/**
* @brief Called when new DMX arrives.
*/
void DMXTrigger::NewDMX(const DmxBuffer &data) {
SlotVector::iterator iter = m_slots.begin();
for (; iter != m_slots.end(); iter++) {
uint16_t slot_number = (*iter)->SlotOffset();
if (slot_number >= data.Size()) {
// the DMX frame was too small
break;
}
(*iter)->TakeAction(m_context, data.Get(slot_number));
}
}
/*
* Send data
* @param buffer a DmxBuffer with the data
*/
int MilInstWidget1553::Send(const DmxBuffer &buffer) const {
unsigned int channels = std::min(static_cast<unsigned int>(m_channels),
buffer.Size());
uint8_t msg[3 + channels];
msg[0] = MILINST_1553_LOAD_COMMAND;
ola::utils::SplitUInt16(1, &msg[1], &msg[2]);
buffer.Get(msg + 3, &channels);
return m_socket->Send(msg, sizeof(msg));
}
/**
* Send the DmxBuffer as an array of normalized floats.
*/
bool OSCNode::SendFloatArray(const DmxBuffer &dmx_data,
const OSCTargetVector &targets) {
lo_message message = lo_message_new();
for (size_t i = 0; i < dmx_data.Size(); ++i) {
lo_message_add_float(message, dmx_data.Get(i) / 255.0f);
}
bool ok = SendMessageToTargets(message, targets);
lo_message_free(message);
return ok;
}
/*
* Update the screen with new values
*/
void DmxMonitor::Values() {
int i = 0, x, y, z = first_channel;
/* values */
for (y = 2; y < LINES && z < DMX_UNIVERSE_SIZE && i < channels_per_screen;
y+=2) {
move(y, 0);
for (x = 0; x < channels_per_line && z < DMX_UNIVERSE_SIZE &&
i < channels_per_screen; x++, z++, i++) {
const int d = m_buffer.Get(z);
switch (d) {
case 0:
(void) attrset(palette[ZERO]);
break;
case 255:
(void) attrset(palette[FULL]);
break;
default:
(void) attrset(palette[NORM]);
}
if (z == current_channel)
attron(A_REVERSE);
switch (display_mode) {
case DISP_MODE_HEX:
if (d == 0)
addstr(" ");
else
printw(" %02x ", d);
break;
case DISP_MODE_DEC:
if (d == 0)
addstr(" ");
else if (d < 100)
printw(" %02d ", d);
else
printw("%03d ", d);
break;
case DISP_MODE_DMX:
default:
switch (d) {
case 0:
addstr(" ");
break;
case 255:
addstr(" FL ");
break;
default:
printw(" %02d ", (d * 100) / 255);
}
}
}
}
}
bool DummyPort::WriteDMX(const DmxBuffer &buffer,
uint8_t priority) {
(void) priority;
m_buffer = buffer;
ostringstream str;
string data = buffer.Get();
str << "Dummy port: got " << buffer.Size() << " bytes: ";
for (unsigned int i = 0; i < 10 && i < data.size(); i++)
str << "0x" << std::hex << 0 + (uint8_t) data.at(i) << " ";
OLA_INFO << str.str();
return true;
}
void OPCServerTest::SendDataAndCheck(uint8_t channel,
const DmxBuffer &buffer) {
unsigned int dmx_size = buffer.Size();
uint8_t data[dmx_size + 4];
data[0] = channel;
data[1] = SET_PIXELS_COMMAND;
ola::utils::SplitUInt16(static_cast<uint16_t>(dmx_size), &data[2], &data[3]);
buffer.Get(data + 4, &dmx_size);
m_client_socket->Send(data, dmx_size + 4);
m_ss.Run();
OLA_ASSERT_EQ(m_received_data, buffer);
}
bool UltraDMXProWidget::SendDMXWithLabel(uint8_t label,
const DmxBuffer &data) {
struct {
uint8_t start_code;
uint8_t dmx[DMX_UNIVERSE_SIZE];
} widget_dmx;
widget_dmx.start_code = DMX512_START_CODE;
unsigned int length = DMX_UNIVERSE_SIZE;
data.Get(widget_dmx.dmx, &length);
return SendMessage(label,
reinterpret_cast<uint8_t*>(&widget_dmx),
length + 1);
}
/*
* Returns the current DMX values for a particular universe
*/
void OlaServerServiceImpl::GetDmx(
RpcController* controller,
const UniverseRequest* request,
DmxData* response,
ola::rpc::RpcService::CompletionCallback* done) {
ClosureRunner runner(done);
Universe *universe = m_universe_store->GetUniverse(request->universe());
if (!universe)
return MissingUniverseError(controller);
const DmxBuffer buffer = universe->GetDMX();
response->set_data(buffer.Get());
response->set_universe(request->universe());
}
/*
* Send an EspNet data packet
*/
bool EspNetNode::SendEspData(const IPV4Address &dst,
uint8_t universe,
const DmxBuffer &buffer) {
espnet_packet_union_t packet;
memset(&packet.dmx, 0, sizeof(packet.dmx));
packet.dmx.head = HostToNetwork((uint32_t) ESPNET_DMX);
packet.dmx.universe = universe;
packet.dmx.start = START_CODE;
packet.dmx.type = DATA_RAW;
unsigned int size = DMX_UNIVERSE_SIZE;
buffer.Get(packet.dmx.data, &size);
packet.dmx.size = HostToNetwork((uint16_t) size);
return SendPacket(dst, packet, sizeof(packet.dmx));
}
/*
* Send an uncompressed DMX packet
*/
bool SandNetNode::SendUncompressedDMX(uint8_t port_id,
const DmxBuffer &buffer) {
sandnet_packet packet;
sandnet_dmx *dmx_packet = &packet.contents.dmx;
packet.opcode = HostToNetwork(static_cast<uint16_t>(SANDNET_DMX));
dmx_packet->group = m_ports[port_id].group;
dmx_packet->universe = m_ports[port_id].universe;
dmx_packet->port = port_id;
unsigned int length = DMX_UNIVERSE_SIZE;
buffer.Get(dmx_packet->dmx, &length);
unsigned int header_size = sizeof(sandnet_dmx) - sizeof(dmx_packet->dmx);
return SendPacket(packet, sizeof(packet.opcode) + header_size + length);
}
/*
* Test that Blackout() works
*/
void DmxBufferTest::testBlackout() {
DmxBuffer buffer;
OLA_ASSERT_TRUE(buffer.Blackout());
uint8_t *result = new uint8_t[DMX_UNIVERSE_SIZE];
uint8_t *zero = new uint8_t[DMX_UNIVERSE_SIZE];
unsigned int result_length = DMX_UNIVERSE_SIZE;
memset(zero, 0, DMX_UNIVERSE_SIZE);
buffer.Get(result, &result_length);
OLA_ASSERT_EQ((unsigned int) DMX_UNIVERSE_SIZE, result_length);
OLA_ASSERT_EQ(0, memcmp(zero, result, result_length));
delete[] result;
delete[] zero;
buffer.Reset();
OLA_ASSERT_EQ(0u, buffer.Size());
}
bool PerformTransfer(const DmxBuffer &buffer) {
m_adaptor->FillControlSetup(
m_control_setup_buffer,
LIBUSB_REQUEST_TYPE_VENDOR | LIBUSB_RECIPIENT_DEVICE |
LIBUSB_ENDPOINT_OUT, // bmRequestType
UDMX_SET_CHANNEL_RANGE, // bRequest
buffer.Size(), // wValue
0, // wIndex
buffer.Size()); // wLength
unsigned int length = DMX_UNIVERSE_SIZE;
buffer.Get(m_control_setup_buffer + LIBUSB_CONTROL_SETUP_SIZE, &length);
FillControlTransfer(m_control_setup_buffer, URB_TIMEOUT_MS);
return (SubmitTransfer() == 0);
}
/*
* Send DMX to the widget
*/
bool SunliteOutputPort::SendDMX(const DmxBuffer &buffer) {
for (unsigned int i = 0; i < buffer.Size(); i++)
m_packet[(i / CHANNELS_PER_CHUNK) * CHUNK_SIZE +
((i / 4) % 5) * 6 + 3 + (i % 4)] = buffer.Get(i);
int transferred;
int r = libusb_bulk_transfer(
m_usb_handle,
ENDPOINT,
(unsigned char*) m_packet,
SUNLITE_PACKET_SIZE,
&transferred,
TIMEOUT);
if (transferred != SUNLITE_PACKET_SIZE)
// not sure if this is fatal or not
OLA_WARN << "Sunlite driver failed to transfer all data";
return r == 0;
}
/*
* Send a DMX Update to this client
* @param universe the universe_id for this data
* @param buffer the DmxBuffer with the data
* @return true if the update was sent, false otherwise
*/
bool Client::SendDMX(unsigned int universe, const DmxBuffer &buffer) {
if (!m_client_stub) {
OLA_FATAL << "client_stub is null";
return false;
}
SimpleRpcController *controller = new SimpleRpcController();
ola::proto::DmxData dmx_data;
ola::proto::Ack *ack = new ola::proto::Ack();
dmx_data.set_universe(universe);
dmx_data.set_data(buffer.Get());
m_client_stub->UpdateDmxData(
controller,
&dmx_data,
ack,
NewCallback(this, &ola::Client::SendDMXCallback, controller, ack));
return true;
}
/*
* Call the UpdateDmxDataCheck method
* @param impl the OlaServerServiceImpl to use
* @param universe_id the universe_id in the request
* @param data the DmxBuffer to use as data
* @param check the SetUniverseNameCheck to use for the callback check
*/
void OlaServerServiceImplTest::CallUpdateDmxData(
OlaClientService *service,
int universe_id,
const DmxBuffer &data,
UpdateDmxDataCheck &check) {
SimpleRpcController *controller = new SimpleRpcController();
ola::proto::DmxData *request = new
ola::proto::DmxData();
ola::proto::Ack *response = new ola::proto::Ack();
Closure *closure = NewCallback(
&check,
&UpdateDmxDataCheck::Check,
controller,
response);
request->set_universe(universe_id);
request->set_data(data.Get());
service->UpdateDmxData(controller, request, response, closure);
delete controller;
delete request;
delete response;
}
/*
* Send some DMX data
* @param buffer the DMX data
* @return true if it was send successfully, false otherwise
*/
bool PathportNode::SendDMX(unsigned int universe, const DmxBuffer &buffer) {
if (!m_running)
return false;
if (universe > MAX_UNIVERSES) {
OLA_WARN << "attempt to send to universe " << universe;
return false;
}
pathport_packet_s packet;
// pad to a multiple of 4 bytes
unsigned int padded_size = (buffer.Size() + 3) & ~3;
PopulateHeader(&packet.header, PATHPORT_DATA_GROUP);
pathport_packet_pdu *pdu = &packet.d.pdu;
pdu->head.type = HostToNetwork((uint16_t) PATHPORT_DATA);
pdu->head.len = HostToNetwork(
(uint16_t) (padded_size + sizeof(pathport_pdu_data)));
pdu->d.data.type = HostToNetwork((uint16_t) XDMX_DATA_FLAT);
pdu->d.data.channel_count = HostToNetwork((uint16_t) buffer.Size());
pdu->d.data.universe = 0;
pdu->d.data.start_code = 0;
pdu->d.data.offset = HostToNetwork(
(uint16_t) (DMX_UNIVERSE_SIZE * universe));
unsigned int length = padded_size;
buffer.Get(pdu->d.data.data, &length);
// pad data to multiple of 4 bytes
length = sizeof(pathport_packet_header) +
sizeof(pathport_pdu_header) +
sizeof(pathport_pdu_data) + padded_size;
return SendPacket(packet, length, m_data_addr);
}
/*
* Check that Get/Set works correctly
*/
void DmxBufferTest::testGetSet() {
unsigned int fudge_factor = 10;
unsigned int result_length = sizeof(TEST_DATA2) + fudge_factor;
uint8_t *result = new uint8_t[result_length];
unsigned int size = result_length;
DmxBuffer buffer;
string str_result;
OLA_ASSERT_EQ((uint8_t) 0, buffer.Get(0));
OLA_ASSERT_EQ((uint8_t) 0, buffer.Get(1));
OLA_ASSERT_FALSE(buffer.Set(NULL, sizeof(TEST_DATA)));
OLA_ASSERT_TRUE(buffer.Set(TEST_DATA, sizeof(TEST_DATA)));
OLA_ASSERT_EQ((uint8_t) 1, buffer.Get(0));
OLA_ASSERT_EQ((uint8_t) 2, buffer.Get(1));
OLA_ASSERT_EQ((unsigned int) sizeof(TEST_DATA), buffer.Size());
buffer.Get(result, &size);
OLA_ASSERT_EQ((unsigned int) sizeof(TEST_DATA), size);
OLA_ASSERT_EQ(0, memcmp(TEST_DATA, result, size));
str_result = buffer.Get();
OLA_ASSERT_EQ((size_t) sizeof(TEST_DATA), str_result.length());
OLA_ASSERT_EQ(0, memcmp(TEST_DATA, str_result.data(), str_result.length()));
size = result_length;
OLA_ASSERT_TRUE(buffer.Set(TEST_DATA2, sizeof(TEST_DATA2)));
OLA_ASSERT_EQ((unsigned int) sizeof(TEST_DATA2), buffer.Size());
buffer.Get(result, &size);
OLA_ASSERT_EQ((unsigned int) sizeof(TEST_DATA2), size);
OLA_ASSERT_EQ(0, memcmp(TEST_DATA2, result, size));
str_result = buffer.Get();
OLA_ASSERT_EQ((size_t) sizeof(TEST_DATA2), str_result.length());
OLA_ASSERT_EQ(0, memcmp(TEST_DATA2, str_result.data(), str_result.length()));
// now check that Set() with another buffer works
DmxBuffer buffer2;
buffer2.Set(buffer);
str_result = buffer2.Get();
OLA_ASSERT_EQ((size_t) sizeof(TEST_DATA2), str_result.length());
OLA_ASSERT_EQ(0, memcmp(TEST_DATA2, str_result.data(), str_result.length()));
delete[] result;
}
/*
* Take a DMXBuffer and RunLengthEncode the data
* @param src the DmxBuffer with the DMX data
* @param data where to store the RLE data
* @param size the size of the data segment, set to the amount of data encoded
* @return true if we encoded all data, false if we ran out of space
*/
bool RunLengthEncoder::Encode(const DmxBuffer &src,
uint8_t *data,
unsigned int &data_size) {
unsigned int src_size = src.Size();
unsigned int dst_size = data_size;
unsigned int &dst_index = data_size;
dst_index = 0;
unsigned int i;
for (i = 0; i < src_size && dst_index < dst_size;) {
// j points to the first non-repeating value
unsigned int j = i + 1;
while (j < src_size && src.Get(i) == src.Get(j) && j - i < 0x7f) {
j++;
}
// if the number of repeats is more than 2
// don't encode only two repeats,
if (j - i > 2) {
// if room left in dst buffer
if (dst_size - dst_index > 1) {
data[dst_index++] = (REPEAT_FLAG | (j - i));
data[dst_index++] = src.Get(i);
} else {
// else return what we have done so far
return false;
}
i = j;
} else {
// this value doesn't repeat more than twice
// find out where the next repeat starts
// postcondition: j is one more than the last value we want to send
for (j = i + 1; j < src_size - 2 && j - i < 0x7f; j++) {
// at the end of the array
if (j == src_size - 2) {
j = src_size;
break;
}
// if we're found a repeat of 3 or more stop here
if (src.Get(j) == src.Get(j+1) && src.Get(j) == src.Get(j+2))
break;
}
if (j >= src_size - 2)
j = src_size;
// if we have enough room left for all the values
if (dst_index + j - i < dst_size) {
data[dst_index++] = j - i;
memcpy(&data[dst_index], src.GetRaw() + i, j-i);
dst_index += j - i;
i = j;
// see how much data we can get in
} else if (dst_size - dst_index > 1) {
unsigned int l = dst_size - dst_index -1;
data[dst_index++] = l;
memcpy(&data[dst_index], src.GetRaw() + i, l);
dst_index += l;
return false;
} else {
return false;
}
}
}
if (i < src_size)
return false;
else
return true;
}
/*
* Send a DMX msg.
*/
bool RenardWidget::SendDmx(const DmxBuffer &buffer) {
unsigned int channels = std::max((unsigned int)0,
std::min((unsigned int) m_channels +
m_dmxOffset, buffer.Size()) -
m_dmxOffset);
OLA_DEBUG << "Sending " << static_cast<int>(channels) << " channels";
// Max buffer size for worst case scenario (escaping + padding)
unsigned int bufferSize = channels * 2 + 10;
uint8_t msg[bufferSize];
int dataToSend = 0;
for (unsigned int i = 0; i < channels; i++) {
if ((i % RENARD_CHANNELS_IN_BANK) == 0) {
if (m_byteCounter >= RENARD_BYTES_BETWEEN_PADDING) {
// Send PAD every 100 (or so) bytes. Note that the counter is per
// device, so the counter should span multiple calls to SendDMX.
msg[dataToSend++] = RENARD_COMMAND_PAD;
m_byteCounter = 0;
}
// Send address
msg[dataToSend++] = RENARD_COMMAND_START_PACKET;
msg[dataToSend++] = m_startAddress + (i / RENARD_CHANNELS_IN_BANK);
m_byteCounter += 2;
}
uint8_t b = buffer.Get(m_dmxOffset + i);
// Escaping magic bytes
switch (b) {
case RENARD_COMMAND_PAD:
msg[dataToSend++] = RENARD_COMMAND_ESCAPE;
msg[dataToSend++] = RENARD_ESCAPE_PAD;
m_byteCounter += 2;
break;
case RENARD_COMMAND_START_PACKET:
msg[dataToSend++] = RENARD_COMMAND_ESCAPE;
msg[dataToSend++] = RENARD_ESCAPE_START_PACKET;
m_byteCounter += 2;
break;
case RENARD_COMMAND_ESCAPE:
msg[dataToSend++] = RENARD_COMMAND_ESCAPE;
msg[dataToSend++] = RENARD_ESCAPE_ESCAPE;
m_byteCounter += 2;
break;
default:
msg[dataToSend++] = b;
m_byteCounter++;
break;
}
OLA_DEBUG << "Setting Renard " << m_startAddress +
(i / RENARD_CHANNELS_IN_BANK) << "/" <<
((i % RENARD_CHANNELS_IN_BANK) + 1) << " to " <<
static_cast<int>(b);
}
int bytes_sent = m_socket->Send(msg, dataToSend);
OLA_DEBUG << "Sending DMX, sent " << bytes_sent << " bytes";
return true;
}
/*
* Update the screen with new values
*/
void DmxMonitor::Values() {
int i = 0, x, y, z = first_channel;
/* values */
for (y = ROWS_PER_CHANNEL_ROW;
y < LINES && z < DMX_UNIVERSE_SIZE &&
i < static_cast<int>(channels_per_screen);
y += ROWS_PER_CHANNEL_ROW) {
move(y, 0);
for (x = 0;
x < static_cast<int>(channels_per_line) &&
z < DMX_UNIVERSE_SIZE &&
i < static_cast<int>(channels_per_screen);
x++, z++, i++) {
const int d = m_buffer.Get(z);
switch (d) {
case DMX_MIN_CHANNEL_VALUE:
(void) attrset(palette[ZERO]);
break;
case DMX_MAX_CHANNEL_VALUE:
(void) attrset(palette[FULL]);
break;
default:
(void) attrset(palette[NORM]);
}
if (static_cast<int>(z) == current_channel)
attron(A_REVERSE);
switch (display_mode) {
case DISP_MODE_HEX:
if (d == 0) {
if (static_cast<int>(m_buffer.Size()) <= z) {
addstr("--- ");
} else {
addstr(" ");
}
} else {
printw(" %02x ", d);
}
break;
case DISP_MODE_DEC:
if (d == 0) {
if (static_cast<int>(m_buffer.Size()) <= z) {
addstr("--- ");
} else {
addstr(" ");
}
} else if (d < 100) {
printw(" %02d ", d);
} else {
printw("%03d ", d);
}
break;
case DISP_MODE_DMX:
default:
switch (d) {
case DMX_MIN_CHANNEL_VALUE:
if (static_cast<int>(m_buffer.Size()) <= z) {
addstr("--- ");
} else {
addstr(" ");
}
break;
case DMX_MAX_CHANNEL_VALUE:
addstr(" FL ");
break;
default:
printw(" %02d ", (d * 100) / DMX_MAX_CHANNEL_VALUE);
}
}
}
}
}
