openpgp-card/tools/src/bin/opgpcard/commands/status.rs
2022-10-26 18:58:30 +02:00

206 lines
6.7 KiB
Rust

// SPDX-FileCopyrightText: 2021-2022 Heiko Schaefer <heiko@schaefer.name>
// SPDX-FileCopyrightText: 2022 Lars Wirzenius <liw@liw.fi>
// SPDX-FileCopyrightText: 2022 Nora Widdecke <mail@nora.pink>
// SPDX-License-Identifier: MIT OR Apache-2.0
use anyhow::Result;
use clap::Parser;
use openpgp_card_sequoia::card::Card;
use openpgp_card_sequoia::types::KeyType;
use crate::output;
use crate::pick_card_for_reading;
use crate::versioned_output::{OutputBuilder, OutputFormat, OutputVersion};
#[derive(Parser, Debug)]
pub struct StatusCommand {
#[clap(name = "card ident", short = 'c', long = "card")]
pub ident: Option<String>,
#[clap(name = "verbose", short = 'v', long = "verbose")]
pub verbose: bool,
/// Print public key material for each key slot
#[clap(name = "pkm", short = 'K', long = "public-key-material")]
pub pkm: bool,
}
pub fn print_status(
format: OutputFormat,
output_version: OutputVersion,
command: StatusCommand,
) -> Result<()> {
let mut output = output::Status::default();
output.verbose(command.verbose);
let backend = pick_card_for_reading(command.ident)?;
let mut card = Card::new(backend);
let mut open = card.transaction()?;
output.ident(open.application_identifier()?.ident());
let ai = open.application_identifier()?;
let version = ai.version().to_be_bytes();
output.card_version(format!("{}.{}", version[0], version[1]));
// card / cardholder metadata
let crd = open.cardholder_related_data()?;
if let Some(name) = crd.name() {
// FIXME: decoding as utf8 is wrong (the spec defines this field as latin1 encoded)
let name = String::from_utf8_lossy(name).to_string();
// // This field is silly, maybe ignore it?!
// if let Some(sex) = crd.sex() {
// if sex == Sex::Male {
// print!("Mr. ");
// } else if sex == Sex::Female {
// print!("Mrs. ");
// }
// }
// re-format name ("last<<first")
let name: Vec<_> = name.split("<<").collect();
let name = name.iter().cloned().rev().collect::<Vec<_>>().join(" ");
output.card_holder(name);
}
let url = open.url()?;
if !url.is_empty() {
output.url(url);
}
if let Some(lang) = crd.lang() {
for lang in lang {
output.language_preference(format!("{}", lang));
}
}
// key information (imported vs. generated on card)
let ki = open.key_information().ok().flatten();
let pws = open.pw_status_bytes()?;
// information about subkeys
let fps = open.fingerprints()?;
let kgt = open.key_generation_times()?;
let mut signature_key = output::KeySlotInfo::default();
if let Some(fp) = fps.signature() {
signature_key.fingerprint(fp.to_spaced_hex());
}
signature_key.algorithm(format!("{}", open.algorithm_attributes(KeyType::Signing)?));
if let Some(kgt) = kgt.signature() {
signature_key.created(format!("{}", kgt.to_datetime()));
}
if let Some(uif) = open.uif_signing()? {
signature_key.touch_policy(format!("{}", uif.touch_policy()));
signature_key.touch_features(format!("{}", uif.features()));
}
if let Some(ks) = ki.as_ref().map(|ki| ki.sig_status()) {
signature_key.status(format!("{}", ks));
}
if pws.pw1_cds_valid_once() {
signature_key.pin_valid_once();
}
if command.pkm {
if let Ok(pkm) = open.public_key(KeyType::Signing) {
signature_key.public_key_material(pkm.to_string());
}
}
output.signature_key(signature_key);
let sst = open.security_support_template()?;
output.signature_count(sst.signature_count());
let mut decryption_key = output::KeySlotInfo::default();
if let Some(fp) = fps.decryption() {
decryption_key.fingerprint(fp.to_spaced_hex());
}
decryption_key.algorithm(format!(
"{}",
open.algorithm_attributes(KeyType::Decryption)?
));
if let Some(kgt) = kgt.decryption() {
decryption_key.created(format!("{}", kgt.to_datetime()));
}
if let Some(uif) = open.uif_decryption()? {
decryption_key.touch_policy(format!("{}", uif.touch_policy()));
decryption_key.touch_features(format!("{}", uif.features()));
}
if let Some(ks) = ki.as_ref().map(|ki| ki.dec_status()) {
decryption_key.status(format!("{}", ks));
}
if command.pkm {
if let Ok(pkm) = open.public_key(KeyType::Decryption) {
decryption_key.public_key_material(pkm.to_string());
}
}
output.decryption_key(decryption_key);
let mut authentication_key = output::KeySlotInfo::default();
if let Some(fp) = fps.authentication() {
authentication_key.fingerprint(fp.to_spaced_hex());
}
authentication_key.algorithm(format!(
"{}",
open.algorithm_attributes(KeyType::Authentication)?
));
if let Some(kgt) = kgt.authentication() {
authentication_key.created(format!("{}", kgt.to_datetime()));
}
if let Some(uif) = open.uif_authentication()? {
authentication_key.touch_policy(format!("{}", uif.touch_policy()));
authentication_key.touch_features(format!("{}", uif.features()));
}
if let Some(ks) = ki.as_ref().map(|ki| ki.aut_status()) {
authentication_key.status(format!("{}", ks));
}
if command.pkm {
if let Ok(pkm) = open.public_key(KeyType::Authentication) {
authentication_key.public_key_material(pkm.to_string());
}
}
output.authentication_key(authentication_key);
// technical details about the card's state
output.user_pin_remaining_attempts(pws.err_count_pw1());
output.admin_pin_remaining_attempts(pws.err_count_pw3());
output.reset_code_remaining_attempts(pws.err_count_rc());
// FIXME: Handle attestation key information as a separate
// KeySlotInfo! Attestation touch information should go into its
// own `Option<KeySlotInfo>`, and (if any information about the
// attestation key exists at all, which is not the case for most
// cards) it should be printed as a fourth KeySlot block.
if let Some(uif) = open.uif_attestation()? {
output.card_touch_policy(uif.touch_policy().to_string());
output.card_touch_features(uif.features().to_string());
}
if let Some(ki) = ki {
let num = ki.num_additional();
for i in 0..num {
output.key_status(ki.additional_ref(i), ki.additional_status(i).to_string());
}
}
if let Ok(fps) = open.ca_fingerprints() {
for fp in fps.iter().flatten() {
output.ca_fingerprint(fp.to_string());
}
}
// FIXME: print "Login Data"
println!("{}", output.print(format, output_version)?);
Ok(())
}