Initial work upgrading to anise 0.4.3

Update the GEO test case because the eclipsing
is more thoroughly validated in ANISE

examples/01_orbit_prop/main.rs

@@ -112,7 +112,7 @@ fn main() -> Result<(), Box<dyn Error>> {
         crc32: Some(0xF446F027), // Specifying the CRC32 avoids redownloading it if it's cached.
     };
     // And let's download it if we don't have it yet.
-    jgm3_meta.process()?;
+    jgm3_meta.process(true)?;
 
     // Build the spherical harmonics.
     // The harmonics must be computed in the body fixed frame.
@@ -237,6 +237,8 @@ fn main() -> Result<(), Box<dyn Error>> {
                 let aer = almanac.azimuth_elevation_range_sez(
                     state.orbit,
                     boulder_station.to_orbit(this_epoch, &almanac)?,
+                    None,
+                    None,
                 )?;
                 azimuth_deg.push(aer.azimuth_deg);
                 elevation_deg.push(aer.elevation_deg);

examples/02_jwst_covar_monte_carlo/main.rs

@@ -35,13 +35,13 @@ fn main() -> Result<(), Box<dyn Error>> {
         uri: "https://naif.jpl.nasa.gov/pub/naif/JWST/kernels/spk/jwst_rec.bsp".to_string(),
         crc32: None,
     };
-    latest_jwst_ephem.process()?;
+    latest_jwst_ephem.process(true)?;
 
     // Load this ephem in the general Almanac we're using for this analysis.
     let almanac = Arc::new(
         MetaAlmanac::latest()
             .map_err(Box::new)?
-            .load_from_metafile(latest_jwst_ephem)?,
+            .load_from_metafile(latest_jwst_ephem, true)?,
     );
 
     // By loading this ephemeris file in the ANISE GUI or ANISE CLI, we can find the NAIF ID of the JWST

examples/03_geo_analysis/drift.rs

@@ -82,7 +82,7 @@ fn main() -> Result<(), Box<dyn Error>> {
         crc32: Some(0xF446F027), // Specifying the CRC32 avoids redownloading it if it's cached.
     };
     // And let's download it if we don't have it yet.
-    jgm3_meta.process()?;
+    jgm3_meta.process(true)?;
 
     // Build the spherical harmonics.
     // The harmonics must be computed in the body fixed frame.

examples/03_geo_analysis/raise.rs

@@ -12,10 +12,7 @@ use anise::{
 };
 use hifitime::{Epoch, TimeUnits, Unit};
 use nyx::{
-    cosmic::{
-        eclipse::{EclipseLocator, EclipseState},
-        GuidanceMode, MetaAlmanac, Orbit, SrpConfig,
-    },
+    cosmic::{eclipse::EclipseLocator, GuidanceMode, MetaAlmanac, Orbit, SrpConfig},
     dynamics::{
         guidance::{GuidanceLaw, Ruggiero, Thruster},
         Harmonics, OrbitalDynamics, SolarPressure, SpacecraftDynamics,
@@ -75,8 +72,7 @@ fn main() -> Result<(), Box<dyn Error>> {
     ];
 
     // Ensure that we only thrust if we have more than 20% illumination.
-    let ruggiero_ctrl =
-        Ruggiero::from_max_eclipse(objectives, sc, EclipseState::Penumbra(0.2)).unwrap();
+    let ruggiero_ctrl = Ruggiero::from_max_eclipse(objectives, sc, 0.2).unwrap();
     println!("{ruggiero_ctrl}");
 
     // Define the high fidelity dynamics
@@ -94,7 +90,7 @@ fn main() -> Result<(), Box<dyn Error>> {
         crc32: Some(0xF446F027), // Specifying the CRC32 avoids redownloading it if it's cached.
     };
     // And let's download it if we don't have it yet.
-    jgm3_meta.process()?;
+    jgm3_meta.process(true)?;
 
     // Build the spherical harmonics.
     // The harmonics must be computed in the body fixed frame.

examples/03_geo_analysis/stationkeeping.rs

@@ -12,10 +12,7 @@ use anise::{
 };
 use hifitime::{Epoch, TimeUnits, Unit};
 use nyx::{
-    cosmic::{
-        eclipse::{EclipseLocator, EclipseState},
-        GuidanceMode, MetaAlmanac, Orbit, SrpConfig,
-    },
+    cosmic::{eclipse::EclipseLocator, GuidanceMode, MetaAlmanac, Orbit, SrpConfig},
     dynamics::{
         guidance::{Ruggiero, Thruster},
         Harmonics, OrbitalDynamics, SolarPressure, SpacecraftDynamics,
@@ -63,7 +60,7 @@ fn main() -> Result<(), Box<dyn Error>> {
         Objective::within_tolerance(StateParameter::Inclination, 0.05, 1e-2),
     ];
 
-    let ruggiero_ctrl = Ruggiero::from_max_eclipse(objectives, sc, EclipseState::Penumbra(0.2))?;
+    let ruggiero_ctrl = Ruggiero::from_max_eclipse(objectives, sc, 0.2)?;
     println!("{ruggiero_ctrl}");
 
     let mut orbital_dyn = OrbitalDynamics::point_masses(vec![MOON, SUN]);
@@ -72,7 +69,7 @@ fn main() -> Result<(), Box<dyn Error>> {
         uri: "http://public-data.nyxspace.com/nyx/models/JGM3.cof.gz".to_string(),
         crc32: Some(0xF446F027), // Specifying the CRC32 avoids redownloading it if it's cached.
     };
-    jgm3_meta.process()?;
+    jgm3_meta.process(true)?;
 
     let harmonics = Harmonics::from_stor(
         almanac.frame_from_uid(IAU_EARTH_FRAME)?,

examples/04_lro_od/main.rs

@@ -50,7 +50,7 @@ fn main() -> Result<(), Box<dyn Error>> {
     // Load this ephem in the general Almanac we're using for this analysis.
     let mut almanac = MetaAlmanac::new(meta.to_string_lossy().to_string())
         .map_err(Box::new)?
-        .process()
+        .process(true)
         .map_err(Box::new)?;
 
     let mut moon_pc = almanac.planetary_data.get_by_id(MOON)?;
@@ -120,7 +120,7 @@ fn main() -> Result<(), Box<dyn Error>> {
         crc32: Some(0x6bcacda8), // Specifying the CRC32 avoids redownloading it if it's cached.
     };
     // And let's download it if we don't have it yet.
-    jggrx_meta.process()?;
+    jggrx_meta.process(true)?;
 
     // Build the spherical harmonics.
     // The harmonics must be computed in the body fixed frame.