* @return the lease key
     */
    public Smb2LeaseKey getLeaseKey() {
        return leaseKey;
    }

    /**
     * Gets the lease state being acknowledged
     * @return the lease state
     */
    public int getLeaseState() {
        return leaseState;
    }

    /**
     * Gets the lease flags for this acknowledgment
     * @return the lease flags
     */
    public int getLeaseFlags() {

    protected final AtomicInteger receiveCredits;
    /** Queue of pending RDMA work requests */
    protected final BlockingQueue<RdmaWorkRequest> pendingRequests;

    // Connection state
    /** Current connection state */
    protected volatile RdmaConnectionState state;
    /** Credit management for SMB Direct */
    protected RdmaCredits credits;
    /** Maximum size for fragmented operations */
    protected int maxFragmentedSize;

        state.incrementRetry();

        // For test purposes, execute recovery immediately without delay
        // In production, this might use the delay from getNextRetryTime()
        executor.submit(() -> attemptRecovery(channel, state));
    }

    private void scheduleRecoveryWithTransport(ChannelInfo channel, FailoverState state, SmbTransport newTransport) {

        this.leaseKey = leaseKey;
    }

    /**
     * Gets the requested lease state flags for V2
     * @return the requested lease state
     */
    public int getLeaseState() {
        return leaseState;
    }

    /**
     * Sets the requested lease state flags for V2
     * @param leaseState the lease state to set
     */
    public void setLeaseState(int leaseState) {

        }
    }

    /**
     * Validates the OAuth2 state parameter.
     * @param session The HTTP session containing stored state data.
     * @param state The state parameter to validate.
     * @return The validated state data.
     */
    protected StateData validateState(final HttpSession session, final String state) {
        if (StringUtils.isNotEmpty(state)) {

     * most common. This is the state information that would be retrieved from
     * WINS for example. Natrually it is not practical for every NbtAddress
     * to be populated will all state requiring a Node Status on every host
     * encountered. The below methods allow state to be populated when requested
     * in a lazy fashon.
     */

                .append(",workstation=")
                .append(workstation)
                .append(",isEstablished=")
                .append(isEstablished)
                .append(",state=")
                .append(state)
                .append(",serverChallenge=");
        if (serverChallenge == null) {
            ret.append("null");
        } else {

}

// State is a connection state.
type State uint32

// MANUAL go:generate stringer -type=State -output=state_string.go -trimprefix=State $GOFILE

const (
	// StateUnconnected is the initial state of a connection.
	// When the first message is sent it will attempt to connect.
	StateUnconnected = iota

		v.Set("redirect_uri", c.RedirectURL)
	}
	if len(c.Scopes) > 0 {
		v.Set("scope", strings.Join(c.Scopes, " "))
	}
	v.Set("state", state)
	v.Set("nonce", state)
	if strings.Contains(c.Endpoint.AuthURL, "?") {
		buf.WriteByte('&')
	} else {
		buf.WriteByte('?')
	}
	buf.WriteString(v.Encode())
	return buf.String()
}

func main() {
	flag.Parse()
	if clientID == "" {

### Build state model

As Gradle executes, it acts on various pieces of the build definition, such as each project in the build.
Gradle tracks the state of each piece and transitions each piece through its lifecycle as the build runs.

A central part of the Gradle architecture is the "build state model", which holds the state for each piece and coordinates state transitions and other mutations.