forked from M-Labs/artiq
doc: various cleanups
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@ -6,10 +6,9 @@ from artiq.devices import rtio_core
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class DDS(AutoContext):
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class DDS(AutoContext):
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"""Core device Direct Digital Synthesis (DDS) driver.
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"""Core device Direct Digital Synthesis (DDS) driver.
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This driver controls DDS devices managed directly by the core device's
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Controls DDS devices managed directly by the core device's runtime. It also
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runtime. It also uses a RTIO channel (through
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uses a RTIO channel (through :class:`artiq.devices.rtio_core.RTIOOut`) to
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:class:`artiq.devices.rtio_core.RTIOOut`) to control a RF switch that
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control a RF switch that gates the output of the DDS device.
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gates the output of the DDS device.
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:param dds_sysclk: DDS system frequency, used for computing the frequency
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:param dds_sysclk: DDS system frequency, used for computing the frequency
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tuning words.
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tuning words.
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@ -28,8 +28,8 @@ class _RTIOBase(AutoContext):
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class RTIOOut(_RTIOBase):
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class RTIOOut(_RTIOBase):
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"""RTIO output driver.
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"""RTIO output driver.
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This driver configures the corresponding RTIO channel as output on the core
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Configures the corresponding RTIO channel as output on the core device and
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device and provides functions to set its level.
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provides functions to set its level.
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This driver supports zero-length transition suppression. For example, if
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This driver supports zero-length transition suppression. For example, if
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two pulses are emitted back-to-back with no delay between them, they will
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two pulses are emitted back-to-back with no delay between them, they will
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@ -82,9 +82,9 @@ class RTIOOut(_RTIOBase):
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class RTIOIn(_RTIOBase):
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class RTIOIn(_RTIOBase):
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"""RTIO input driver.
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"""RTIO input driver.
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This driver configures the corresponding RTIO channel as input on the core
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Configures the corresponding RTIO channel as input on the core device and
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device and provides functions to analyze the incoming signal, with
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provides functions to analyze the incoming signal, with real-time gating
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real-time gating to prevent overflows.
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to prevent overflows.
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:param core: core device
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:param core: core device
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:param channel: channel number
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:param channel: channel number
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@ -127,7 +127,7 @@ class AutoContext:
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... self.exp2 = SubExperiment(self, bar=self.bar2)
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... self.exp2 = SubExperiment(self, bar=self.bar2)
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... self.exp3 = SubExperiment(self, bar=self.bar2 + self.offset)
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... self.exp3 = SubExperiment(self, bar=self.bar2 + self.offset)
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...
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...
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>>> def run():
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... def run():
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... self.exp1.run()
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... self.exp1.run()
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... self.exp2.run()
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... self.exp2.run()
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... self.exp3.run()
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... self.exp3.run()
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@ -7,10 +7,11 @@ Preparing the core device FPGA board
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You may skip those steps if the board is already flashed.
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You may skip those steps if the board is already flashed.
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You will need:
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You will need:
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* FPGA vendor tools (e.g. Xilinx ISE or Vivado)
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* OpenRISC GCC/binutils toolchain (or1k-elf-...)
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* FPGA vendor tools (e.g. Xilinx ISE or Vivado)
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* Python 3.3+
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* OpenRISC GCC/binutils toolchain (or1k-elf-...)
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* Migen and MiSoC (http://m-labs.hk/gateware.html)
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* Python 3.3+
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* Migen and MiSoC (http://m-labs.hk/gateware.html)
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After these components are installed, build and flash the bitstream and BIOS by running `from the MiSoC top-level directory`: ::
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After these components are installed, build and flash the bitstream and BIOS by running `from the MiSoC top-level directory`: ::
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@ -74,4 +75,3 @@ You can then install ARTIQ itself: ::
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sudo python setup.py
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sudo python setup.py
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Alternatively, you can simply add the ARTIQ directory to your ``PYTHONPATH`` environment variable. The advantage of this technique is that you will not need to reinstall ARTIQ when modifying or upgrading it, which is useful during development.
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Alternatively, you can simply add the ARTIQ directory to your ``PYTHONPATH`` environment variable. The advantage of this technique is that you will not need to reinstall ARTIQ when modifying or upgrading it, which is useful during development.
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