diff -r 521c35556177 -r aba381b2bac9 content/HPZR24W.rst
--- a/content/HPZR24W.rst	Thu Nov 05 22:14:33 2020 +0100
+++ b/content/HPZR24W.rst	Thu Nov 05 22:15:16 2020 +0100
@@ -30,7 +30,7 @@
 - a blacklight HV driver board.
 
 
-.. image:: {static}images/ZR24W/back.jpg
+.. image:: {static}/images/ZR24W/back.jpg
    :alt: Back of the HP ZR24W
 
 First thing, to make sure the problem comes from the PSU, I powered the monitor
@@ -39,16 +39,16 @@
 enough to power the backlight. The second output was used to produce the 12V,
 and the 5V was generated by my very old home made PSU.
 
-.. image:: {static}images/ZR24W/ext_power.jpg
+.. image:: {static}/images/ZR24W/ext_power.jpg
    :alt: Testing the display with my bench PSU.
 
 The monitor was working fine when powered from these PSUs, so the problem was,
 indeed, this Tatung PWB-1336-02 switching PSU:
 
-.. image:: {static}images/ZR24W/psu_top.jpg
+.. image:: {static}/images/ZR24W/psu_top.jpg
    :alt: Top of the Tatung PWB-1336-02 PSU
 
-.. image:: {static}images/ZR24W/psu_bottom.jpg
+.. image:: {static}/images/ZR24W/psu_bottom.jpg
    :alt: Bottom view of the Tatung PWB-1336-02 PSU
 
 The design is nice and clean. Electrolytic caps however are not the best ones
@@ -85,7 +85,7 @@
 
 
 My first test has been to plug my cheap `electronic load
-<{static}/ZPB30A1.rst>`_ on the 5V with the 2 other voltages stopped.
+<{filename}/ZPB30A1.rst>`_ on the 5V with the 2 other voltages stopped.
 
 And I could reliably sink 3A from there. So the problem must be on one of the 2
 other rails.
@@ -104,7 +104,7 @@
 is some kind of a joke on the Rigol, since you cannot hide the A and B curves:
 the curve substraction is purely computed from displayed curve. When I found
 how useless this was on the Rigol, I had not enough energy to extract my old
-`Tek 2445A <{static}/TeK2445.rst>`_ from under the pile of test equipment
+`Tek 2445A <{filename}/TeK2445.rst>`_ from under the pile of test equipment
 stowed in the closet...)
 
 
@@ -146,10 +146,10 @@
 
 The application circuits are as follow:
 
-.. image:: {static}images/ZR24W/tny279_app_circuit.svg
+.. image:: {static}/images/ZR24W/tny279_app_circuit.svg
    :alt: Example application circuit for the TNY279PN controller (from the `datasheet <TNY279PN>`_)
 
-.. image:: {static}images/ZR24W/CM6807_app_circuit.svg
+.. image:: {static}/images/ZR24W/CM6807_app_circuit.svg
    :alt: Example application circuit for the CM6807 controller (from the `datasheet <CM6807>`_)
 
 In this PSU, the input DC of the TNY279 (the point just before R5 in the app
@@ -160,7 +160,7 @@
 there is derivated DC input path, from the bridge rectifier to the input DC
 rail, consisting in a diode (D922 on the PCB) followed by a thermistor (R915):
 
-.. image:: {static}images/ZR24W/input_DC.jpeg
+.. image:: {static}/images/ZR24W/input_DC.jpeg
    :alt: Input DC showing both paths (yellow: via the PFC, red: the alternate
          path when power saving is on).