protected FessConfig fessConfig;

    public List<BadWord> getBadWordList(final BadWordPager badWordPager) {

        final PagingResultBean<BadWord> badWordList = badWordBhv.selectPage(cb -> {
            cb.paging(badWordPager.getPageSize(), badWordPager.getCurrentPageNumber());
            setupListCondition(cb, badWordPager);
        });

        // update pager

	}

	uploadContent := "The specified multipart upload does not exist. The upload ID might be invalid, or the multipart upload might have been aborted or completed."
	var opts ObjectOptions
	// check before paging occurs.
	for i := 0; i < 5; i++ {
		key := "obj" + strconv.Itoa(i)

                    .body("response." + getItemEndpointSuffix() + "." + getKeyProperty(), startsWith(getNamePrefix()));
        });

        // Test: paging
        searchBody.put("size", 1);
        for (int i = 0; i < NUM; i++) {
            searchBody.put("page", i + 1);

    public List<ElevateWord> getElevateWordList(final ElevateWordPager elevateWordPager) {

        final PagingResultBean<ElevateWord> elevateWordList = elevateWordBhv.selectPage(cb -> {
            cb.paging(elevateWordPager.getPageSize(), elevateWordPager.getCurrentPageNumber());
            setupListCondition(cb, elevateWordPager);
        });

        // update pager

   *       and virtual memory, this is not a problem - because it is mapped read-only, the kernel
   *       can always page it to disk "for free". However, on systems where killing processes
   *       happens all the time in normal conditions (i.e., android) the OS must make a tradeoff
   *       between paging memory and killing other processes - so allocating a gigantic buffer and

        final int windowSize = fessConfig.getRankFusionWindowSizeAsInteger();
        if (maxPageSize * 2 < windowSize) {
            logger.warn("rank.fusion.window_size is lower than paging.search.page.max.size. "
                    + "The window size should be 2x more than the page size. ({} * 2 <= {})", maxPageSize, windowSize);
            this.windowSize = 2 * maxPageSize;
        } else {

    /** The key of the configuration. e.g. 25 */
    String PAGING_PAGE_SIZE = "paging.page.size";

    /** The key of the configuration. e.g. 5 */
    String PAGING_PAGE_RANGE_SIZE = "paging.page.range.size";

    /** The key of the configuration. e.g. true */
    String PAGING_PAGE_RANGE_FILL_LIMIT = "paging.page.range.fill.limit";

    /** The key of the configuration. e.g. 1000 */

   *       and virtual memory, this is not a problem - because it is mapped read-only, the kernel
   *       can always page it to disk "for free". However, on systems where killing processes
   *       happens all the time in normal conditions (i.e., android) the OS must make a tradeoff
   *       between paging memory and killing other processes - so allocating a gigantic buffer and

	// to this, since the generated code can be more efficient,
	// but comes at the cost of having a large L2 mapping.
	//
	// We use the L1 map on 64-bit Windows because the arena size
	// is small, but the address space is still 48 bits, and
	// there's a high cost to having a large L2.
	arenaL1Bits = 6 * (_64bit * goos.IsWindows)

	// arenaL2Bits is the number of bits of the arena number

}

// Replacer replacer interface like strings.Replacer
type Replacer interface {
	Replace(name string) string
}

var _ Namer = (*NamingStrategy)(nil)

// NamingStrategy tables, columns naming strategy
type NamingStrategy struct {
	TablePrefix         string
	SingularTable       bool
	NameReplacer        Replacer
	NoLowerCase         bool
	IdentifierMaxLength int
}