Cable TXG \/ TXG-D | Neoprene Round Cable for Heavy-Duty Festoon | Feichun Cable<\/title>\n<meta name=\"description\" content=\"Engineering guide to Cable TXG \/ TXG-D neoprene round heavy-duty festoon cable: 0.6\/1 kV control and power, bus and optical fibre options, 240 m\/min travel, 125 mm fibre radius, screened power and complete order matrices.\">\n<meta name=\"robots\" content=\"index,follow\">\n<style>\n:root{--bg:#070b10;--p:#0d1921;--p2:#102733;--ink:#e8f3f5;--muted:#a9bec7;--line:#284b5b;--c:#55dff7;--g:#a6ded9;--gold:#f0c865;--r:#ff9297;--source:#9ed7f2;--derived:#bfe5a5;--tbc:#ffcf9c}*{box-sizing:border-box}html{scroll-behavior:smooth}body{margin:0;background:var(--bg);color:var(--ink);font:16px\/1.68 Arial,Helvetica,sans-serif}.wrap{max-width:1840px;margin:auto;padding:0 28px}a{color:var(--c);text-decoration:none}a:hover{text-decoration:underline}.hero{padding:72px 0;background:radial-gradient(circle at 8% 5%,rgba(85,223,247,.22),transparent 34%),radial-gradient(circle at 92% 8%,rgba(240,200,101,.18),transparent 34%),linear-gradient(135deg,#041018,#0d4652)}h1{font-size:50px;line-height:1.1;max-width:1780px;margin:20px 0 18px}h2{margin:58px 0 18px;border-left:7px solid var(--c);padding-left:15px;line-height:1.25}h3{color:var(--c);margin-top:28px}.lead{font-size:21px;max-width:1710px;color:#effaff}.eyebrow{letter-spacing:2px;text-transform:uppercase;color:var(--gold);font-weight:bold}.badges,.meta{display:flex;gap:10px;flex-wrap:wrap}.badges span,.meta span{background:#071821;border:1px solid var(--line);border-radius:22px;padding:8px 14px;font-weight:bold}.cards,.grid{display:grid;grid-template-columns:repeat(auto-fit,minmax(250px,1fr));gap:15px;margin:22px 0}.card,.box,.note,.warn{background:var(--p);border:1px solid var(--line);border-radius:10px;padding:18px}.card{border-top:5px solid var(--c)}.card.gold{border-top-color:var(--gold)}.card.green{border-top-color:var(--g)}.card.red{border-top-color:var(--r)}.value{font-size:30px;color:var(--c);font-weight:bold}.note{border-left:7px solid var(--c);margin:15px 0}.warn{border-left:7px solid var(--r);margin:15px 0}.toc{background:var(--p);border:1px solid var(--line);padding:20px;border-left:7px solid var(--c);margin:24px 0}.toc ol{columns:2}.scroll{overflow:auto;margin:18px 0}table{width:100%;border-collapse:collapse;background:#071821;min-width:1450px}caption{text-align:left;padding:10px 0;color:var(--g);font-weight:bold}th,td{border:1px solid var(--line);padding:8px 9px;vertical-align:top}th{background:var(--p2);color:#f4f9fb;position:sticky;top:0}td.key{color:var(--c);font-weight:bold}td.source{color:var(--source)}td.derived{color:var(--derived);font-weight:bold}td.tbc{color:var(--tbc);font-weight:bold}code{color:#f0d59e;background:#071821;padding:2px 5px;border-radius:4px;white-space:nowrap}.formula{white-space:pre-line;background:#071821;border:1px solid var(--line);padding:18px;font-family:ui-monospace,SFMono-Regular,Consolas,monospace}.svg{border:1px solid var(--line);padding:10px;background:#071821;margin:22px 0}.svg svg{width:100%;height:auto;display:block}.svg-caption{font-size:13px;color:#91a9b4;margin:8px 2px 0}.small{font-size:12px;color:#91a9b4}.contact{display:grid;grid-template-columns:1fr 1fr;gap:12px}.contact div{background:#071821;border:1px solid var(--line);padding:15px}.source-list li{margin:9px 0}blockquote{margin:24px 0;padding:20px 24px;background:#071821;border-left:7px solid var(--gold);font-size:20px;color:#fff1c8}.pill{display:inline-block;padding:4px 9px;border:1px solid var(--line);border-radius:8px;margin:3px;color:var(--g)}footer{margin-top:58px;background:#02080c;padding:36px 0}.footer-grid{display:grid;grid-template-columns:2fr 1fr;gap:20px}@media(max-width:800px){h1{font-size:32px}.toc ol{columns:1}.contact,.footer-grid{grid-template-columns:1fr}.hero{padding-top:50px}.wrap{padding:0 16px}table{min-width:1120px}}\n<\/style>\n<\/head>\n<body>\n<header class=\"hero\">\n <div class=\"wrap\">\n <div class=\"eyebrow\">Feichun Cable \u00b7 Crane, port and bulk-material-handling cable engineering<\/div>\n <h1>Cable TXG \/ TXG-D: Neoprene Round Cable for Heavy-Duty Festoon Systems<\/h1>\n <p class=\"lead\">A practical engineering guide to a highly resilient round cable family for container-crane trolleys, process cranes, foundries, steel mills, stacker\/reclaimers, car dumpers, ship unloaders and transport carriers. TXG combines class-5 copper, EPR insulation, layered stranding and a wear-resistant synthetic-rubber sheath for continuous dynamic duty in severe atmospheric conditions.<\/p>\n <div class=\"badges\"><span>Neoprene round cable<\/span><span>0.6\/1 kV<\/span><span>Travel up to 240 m\/min<\/span><span>EPR insulation<\/span><span>5GM3 sheath<\/span><span>Optical-fibre options<\/span><span>Screened 3-phase + split earth<\/span><\/div>\n <div class=\"meta\"><span>English engineering article<\/span><span>Issued 05 August 2026<\/span><span>Complete supplied matrices<\/span><span>Five inline SVG drawings<\/span><\/div>\n <\/div>\n<\/header>\n\n<main class=\"wrap\">\n <nav class=\"toc\" aria-label=\"Article contents\">\n <strong>Navigate this guide<\/strong>\n <ol>\n <li><a href=\"#answer\">What TXG \/ TXG-D is designed to do<\/a><\/li>\n <li><a href=\"#envelope\">Electrical, mechanical, thermal and chemical envelope<\/a><\/li>\n <li><a href=\"#construction\">Construction and cable architecture<\/a><\/li>\n <li><a href=\"#matrices\">Complete order matrices<\/a><\/li>\n <li><a href=\"#dynamics\">240 m\/min movement and bending radius<\/a><\/li>\n <li><a href=\"#screening\">Screened power and optical-fibre engineering<\/a><\/li>\n <li><a href=\"#installation\">Installation, inspection and failure prevention<\/a><\/li>\n <li><a href=\"#compliance\">Standards, approvals and certification<\/a><\/li>\n <li><a href=\"#rfq\">RFQ checklist and Feichun manufacturing route<\/a><\/li>\n <\/ol>\n <\/nav>\n\n <section id=\"answer\">\n <h2>What is Cable TXG \/ TXG-D?<\/h2>\n <blockquote>TXG is a neoprene \/ synthetic-rubber round cable for continuous heavy-duty festoon service. TXG-D extends the family to paired data and optical-fibre transmission. The design is intended for moving power, control, bus and communication media where high travel speed, repeated bending, abrasion and atmospheric exposure must be managed together.<\/blockquote>\n <p>The supplied record specifies <strong>U\u2080\/U = 0.6\/1 kV<\/strong> and a travel speed of <strong>up to 240 m\/min<\/strong>. Typical applications include container-crane trolley power supply, process-crane trolleys, cranes in foundries and steel mills, stacker and reclaimers, car dumpers, ship unloaders and transport carriers.<\/p>\n <p>TXG is not only a \u201csoft rubber cable\u201d. Its engineering value comes from the combination of finely stranded class-5 copper, EPR core insulation, a layered core arrangement, a wear-resistant synthetic-rubber sheath and optional tinned-copper screening. For screened power cables, the supplied description specifically identifies three-phase conductors plus split earth conductors, which can deliver a compact package for high-current mobile equipment.<\/p>\n <div class=\"cards\">\n <div class=\"card\"><div class=\"value\">240 m\/min<\/div><div>Maximum travel speed stated in the supplied TXG \/ TXG-D record. Verify the complete trolley system, acceleration and guide condition.<\/div><\/div>\n <div class=\"card gold\"><div class=\"value\">125 mm<\/div><div>Minimum bending-radius value stated specifically for optical-fibre cables; the general dynamic radius is according to DIN VDE 0298 Part 3.<\/div><\/div>\n <div class=\"card green\"><div class=\"value\">\u221235\u00b0C<\/div><div>Lower ambient limit for TXG flexing. TXG fixed installation is \u221250\u2026+80\u00b0C; TXG-D 24 FO flexing is \u221230\u2026+60\u00b0C.<\/div><\/div>\n <div class=\"card red\"><div class=\"value\">5GM3<\/div><div>Additional technical data identifies an abrasion-resistant special rubber outer sheath of at least 5GM3.<\/div><\/div>\n <\/div>\n <p class=\"note\"><strong>Public engineering context.<\/strong> Conductix-Wampfler describes festoon cables as engineered for heavy-duty operation, high dynamics and harsh environments, with finely stranded conductors and robust sheathing. That supports the design logic explained here; all exact TXG \/ TXG-D values and order rows below are transcribed from the supplied record.<\/p>\n <\/section>\n\n <section id=\"envelope\">\n <h2>Electrical, mechanical, thermal and chemical envelope<\/h2>\n <div class=\"grid\">\n <div class=\"box\"><h3>Electrical<\/h3><p><strong>Rated voltage:<\/strong> U\u2080\/U = 0.6\/1 kV.<\/p><p><strong>AC test voltage:<\/strong> 3.5 kV.<\/p><p><strong>Ampacity:<\/strong> according to DIN VDE 0298-4.<\/p><p><strong>Operational conductor temperature:<\/strong> 90\u00b0C; short-circuit conductor temperature 250\u00b0C.<\/p><\/div>\n <div class=\"box\"><h3>Mechanical<\/h3><p><strong>Travel speed:<\/strong> up to 240 m\/min.<\/p><p><strong>Dynamic minimum radius:<\/strong> according to DIN VDE 0298 Part 3.<\/p><p><strong>Optical-fibre cable radius:<\/strong> 125 mm.<\/p><p><strong>Load data:<\/strong> each row gives a permitted tensile-load value; the complete machine load path still requires engineering review.<\/p><\/div>\n <div class=\"box\"><h3>Thermal<\/h3><p><strong>TXG flexing:<\/strong> \u221235\u00b0C\u2026+80\u00b0C.<\/p><p><strong>TXG fixed:<\/strong> \u221250\u00b0C\u2026+80\u00b0C.<\/p><p><strong>TXG-D 24 FO flexing:<\/strong> \u221230\u00b0C\u2026+60\u00b0C.<\/p><p><strong>TXG-D 24 FO fixed:<\/strong> \u221240\u00b0C\u2026+80\u00b0C.<\/p><\/div>\n <div class=\"box\"><h3>Chemical and atmospheric<\/h3><p>Ozone resistant \u00b7 oil resistant according to DIN EN 60811-404 \u00b7 UV resistant \u00b7 flame retardant according to IEC 60332-1 \u00b7 free from silicone.<\/p><p>The supplied record states <strong>unlimited resistance to atmospheric corrosion<\/strong>. The actual media, salt, cleaning chemistry, temperature and mechanical exposure still require project compatibility review.<\/p><\/div>\n <\/div>\n <div class=\"scroll\"><table><caption>TXG \/ TXG-D product envelope \u2014 supplied values separated from interpretation<\/caption><thead><tr><th>Parameter<\/th><th>Supplied value<\/th><th>Engineering reading<\/th><\/tr><\/thead><tbody><tr><td>Family<\/td><td>Cable TXG \/ TXG-D<\/td><td>Neoprene round cable for continuous heavy-duty festoon<\/td><\/tr><tr><td>Rated voltage<\/td><td>U\u2080\/U = 0.6\/1 kV<\/td><td>Power, control, bus and optical-fibre cable family rating<\/td><\/tr><tr><td>Travel speed<\/td><td>up to 240 m\/min<\/td><td>Application limit supplied; actual life depends on the machine<\/td><\/tr><tr><td>Minimum dynamic radius<\/td><td>according to DIN VDE 0298 Part 3<\/td><td>Use the applicable installation category and exact outer diameter<\/td><\/tr><tr><td>Optical-fibre cable radius<\/td><td>125 mm<\/td><td>Specific supplied value for optical-fibre cables<\/td><\/tr><tr><td>TXG ambient<\/td><td>flexing \u221235\u2026+80\u00b0C; fixed \u221250\u2026+80\u00b0C<\/td><td>TXG ambient envelope<\/td><\/tr><tr><td>TXG-D 24 FO ambient<\/td><td>flexing \u221230\u2026+60\u00b0C; fixed \u221240\u2026+80\u00b0C<\/td><td>TXG-D 24 FO ambient envelope<\/td><\/tr><tr><td>Conductor \/ short circuit<\/td><td>90\u00b0C \/ 250\u00b0C<\/td><td>Conductor limits, not ambient limits<\/td><\/tr><tr><td>AC test voltage<\/td><td>3.5 kV<\/td><td>Release test report must identify the applicable test<\/td><\/tr><tr><td>Flame retardance<\/td><td>IEC 60332-1<\/td><td>Supplied family statement<\/td><\/tr><tr><td>Atmospheric corrosion<\/td><td>Unlimited resistance stated<\/td><td>Confirm actual environment and cleaning media<\/td><\/tr><tr><td>Colour<\/td><td>Black; optical-fibre data rows marked orange<\/td><td>Confirm marking and colour for the selected construction<\/td><\/tr><\/tbody><\/table><\/div>\n <div class=\"warn\"><strong>Do not use the TXG general temperature range for every TXG-D row.<\/strong> The supplied record gives a specific TXG-D 24 FO flexing range of \u221230\u2026+60\u00b0C. The final order must state whether the cable is power\/control, data pair or optical fibre.<\/div>\n <\/section>\n\n <div class=\"svg\"><div><svg xmlns=\"http:\/\/www.w3.org\/2000\/svg\" width=\"1900\" height=\"1090\" viewBox=\"0 0 1900 1090\" role=\"img\" aria-label=\"Schematic cross-section of a TXG neoprene round heavy-duty festoon cable\">\n<defs>\n <radialGradient id=\"tg-jacket\" cx=\".22\" cy=\".15\"><stop stop-color=\"#425f65\"\/><stop offset=\".58\" stop-color=\"#173640\"\/><stop offset=\"1\" stop-color=\"#06131b\"\/><\/radialGradient>\n <radialGradient id=\"tg-ins\" cx=\".25\" cy=\".2\"><stop stop-color=\"#edf2d9\"\/><stop offset=\".65\" stop-color=\"#9fb69b\"\/><stop offset=\"1\" stop-color=\"#46645c\"\/><\/radialGradient>\n <radialGradient id=\"tg-cu\" cx=\".25\" cy=\".2\"><stop stop-color=\"#f7d18f\"\/><stop offset=\".65\" stop-color=\"#bd6d35\"\/><stop offset=\"1\" stop-color=\"#642f19\"\/><\/radialGradient>\n <pattern id=\"tg-strand\" width=\"14\" height=\"14\" patternUnits=\"userSpaceOnUse\"><circle cx=\"3\" cy=\"3\" r=\"2.8\" fill=\"#ffd995\"\/><circle cx=\"10\" cy=\"4\" r=\"2.5\" fill=\"#a84d28\"\/><circle cx=\"6\" cy=\"11\" r=\"2.6\" fill=\"#df8243\"\/><\/pattern>\n <pattern id=\"tg-braid\" width=\"22\" height=\"22\" patternUnits=\"userSpaceOnUse\"><path d=\"M-4 4L4-4M0 22L22 0M18 26L26 18\" stroke=\"#e4c779\" stroke-width=\"4\"\/><\/pattern>\n <marker id=\"tg-arrow\" markerWidth=\"12\" markerHeight=\"12\" refX=\"10\" refY=\"4\" orient=\"auto\"><path d=\"M0 0L12 4L0 8Z\" fill=\"#d9edf0\"\/><\/marker>\n<\/defs>\n<rect width=\"1900\" height=\"1090\" fill=\"#06131b\"\/>\n<text x=\"60\" y=\"62\" fill=\"#55dff7\" font-family=\"Arial\" font-size=\"36\" font-weight=\"700\">TXG \/ TXG-D \u2014 neoprene round festoon cable architecture<\/text>\n<text x=\"60\" y=\"102\" fill=\"#adc4ce\" font-family=\"Arial\" font-size=\"18\">Layered stranded construction \u00b7 EPR core insulation \u00b7 wear-resistant synthetic rubber sheath \u00b7 optional copper braid.<\/text>\n<text x=\"60\" y=\"138\" fill=\"#ffaaa5\" font-family=\"Arial\" font-size=\"16\">Schematic only \u2014 not to scale and not a released manufacturing drawing. Exact construction follows the selected order number.<\/text>\n<g transform=\"translate(555 625)\">\n <circle r=\"440\" fill=\"url(#tg-jacket)\" stroke=\"#8ab8ba\" stroke-width=\"18\"\/>\n <circle r=\"370\" fill=\"#173541\" stroke=\"#b1d2ce\" stroke-width=\"10\"\/>\n <circle r=\"315\" fill=\"url(#tg-braid)\" stroke=\"#e4c779\" stroke-width=\"14\"\/>\n <circle r=\"285\" fill=\"#102b35\" stroke=\"#a6ded9\" stroke-width=\"8\"\/>\n <g stroke=\"#eef6ef\" stroke-width=\"6\">\n <g transform=\"translate(0 -195)\"><circle r=\"124\" fill=\"url(#tg-ins)\"\/><circle r=\"77\" fill=\"url(#tg-cu)\"\/><circle r=\"49\" fill=\"url(#tg-strand)\"\/><\/g>\n <g transform=\"translate(195 0)\"><circle r=\"124\" fill=\"url(#tg-ins)\"\/><circle r=\"77\" fill=\"url(#tg-cu)\"\/><circle r=\"49\" fill=\"url(#tg-strand)\"\/><\/g>\n <g transform=\"translate(0 195)\"><circle r=\"124\" fill=\"url(#tg-ins)\"\/><circle r=\"77\" fill=\"url(#tg-cu)\"\/><circle r=\"49\" fill=\"url(#tg-strand)\"\/><\/g>\n <g transform=\"translate(-195 0)\"><circle r=\"124\" fill=\"url(#tg-ins)\"\/><circle r=\"77\" fill=\"url(#tg-cu)\"\/><circle r=\"49\" fill=\"url(#tg-strand)\"\/><\/g>\n <g transform=\"translate(138 -138)\"><circle r=\"74\" fill=\"#d9e5bd\"\/><circle r=\"43\" fill=\"url(#tg-cu)\"\/><circle r=\"27\" fill=\"url(#tg-strand)\"\/><\/g>\n <g transform=\"translate(-138 138)\"><circle r=\"74\" fill=\"#d9e5bd\"\/><circle r=\"43\" fill=\"url(#tg-cu)\"\/><circle r=\"27\" fill=\"url(#tg-strand)\"\/><\/g>\n <\/g>\n <circle r=\"72\" fill=\"#1a3038\" stroke=\"#e4c779\" stroke-width=\"7\"\/><circle r=\"40\" fill=\"#263f47\" stroke=\"#a6ded9\" stroke-width=\"5\"\/><text x=\"-27\" y=\"7\" fill=\"#e4c779\" font-family=\"Arial\" font-size=\"20\" font-weight=\"700\">core<\/text><text x=\"-33\" y=\"31\" fill=\"#e4c779\" font-family=\"Arial\" font-size=\"20\" font-weight=\"700\">bundle<\/text>\n <g fill=\"#0a1d24\" font-family=\"Arial\" font-size=\"22\" font-weight=\"700\"><text x=\"-20\" y=\"-186\">L1<\/text><text x=\"184\" y=\"8\">L2<\/text><text x=\"-18\" y=\"208\">L3<\/text><text x=\"-218\" y=\"8\">G<\/text><text x=\"110\" y=\"-140\">E<\/text><text x=\"-180\" y=\"158\">E<\/text><\/g>\n<\/g>\n<g font-family=\"Arial\" fill=\"#eaf6f8\">\n <line x1=\"940\" y1=\"245\" x2=\"1280\" y2=\"175\" stroke=\"#d9edf0\" stroke-width=\"3\" marker-end=\"url(#tg-arrow)\"\/><text x=\"1320\" y=\"171\" font-size=\"24\" font-weight=\"700\" fill=\"#55dff7\">1. Wear-resistant synthetic rubber<\/text><text x=\"1320\" y=\"203\" font-size=\"17\">The additional data identifies at least 5GM3 for the special outer sheath.<\/text>\n <line x1=\"925\" y1=\"380\" x2=\"1280\" y2=\"330\" stroke=\"#d9edf0\" stroke-width=\"3\" marker-end=\"url(#tg-arrow)\"\/><text x=\"1320\" y=\"326\" font-size=\"24\" font-weight=\"700\" fill=\"#e4c779\">2. Optional tinned-copper braid<\/text><text x=\"1320\" y=\"358\" font-size=\"17\">The supplied overview gives approximately 85%; detailed data gives at least 80% overall.<\/text>\n <line x1=\"900\" y1=\"540\" x2=\"1280\" y2=\"500\" stroke=\"#d9edf0\" stroke-width=\"3\" marker-end=\"url(#tg-arrow)\"\/><text x=\"1320\" y=\"496\" font-size=\"24\" font-weight=\"700\" fill=\"#a6ded9\">3. Layered stranded construction<\/text><text x=\"1320\" y=\"528\" font-size=\"17\">Supports small diameter and continuous movement in heavy festoon service.<\/text>\n <line x1=\"880\" y1=\"700\" x2=\"1280\" y2=\"670\" stroke=\"#d9edf0\" stroke-width=\"3\" marker-end=\"url(#tg-arrow)\"\/><text x=\"1320\" y=\"666\" font-size=\"24\" font-weight=\"700\" fill=\"#bfe5a5\">4. EPR insulation + class-5 copper<\/text><text x=\"1320\" y=\"698\" font-size=\"17\">Finely stranded bare electrolytic copper with EPR core insulation.<\/text>\n <rect x=\"1200\" y=\"850\" width=\"620\" height=\"120\" rx=\"12\" fill=\"#081b24\" stroke=\"#315b6f\" stroke-width=\"2\"\/><text x=\"1230\" y=\"888\" font-size=\"18\" fill=\"#ffaaa5\">Split-earth note:<\/text><text x=\"1230\" y=\"920\" font-size=\"17\">screened power rows may use three phases<\/text><text x=\"1230\" y=\"948\" font-size=\"17\">plus split earth conductors; confirm the exact row.<\/text>\n<\/g>\n<\/svg><\/div><div class=\"svg-caption\">Figure 1 \u2014 schematic TXG round cable cross-section, including layered cores, EPR insulation, synthetic-rubber sheath and optional braid.<\/div><\/div>\n\n <section id=\"construction\">\n <h2>Construction: the design choices behind TXG durability<\/h2>\n <p>The conductor is finely stranded bare electrolytic copper, class 5 according to VDE 0295. The cores are arranged in layers and insulated with an EPR compound. The outer sheath is an abrasion-resistant special rubber compound; the additional data identifies at least 5GM3. This combination is intended to control bending stress while resisting wear from trolley guides, chain separators and industrial handling.<\/p>\n <p>For screened types, the supplied family design identifies <code>(N)GRDGOEU<\/code> and <code>(N)GRDGCGOEU<\/code>. The overview describes an overall tinned-copper braid with approximately 85% optical coverage. The additional data specifies at least 80% overall shield coverage, at least 60% for individually screened cores and at least 80% for twisted and shielded pairs. These are different screen objects and are intentionally not collapsed into one value.<\/p>\n <div class=\"scroll\"><table><caption>TXG \/ TXG-D construction features from the supplied record<\/caption><thead><tr><th>Construction item<\/th><th>Supplied design detail<\/th><th>Service significance<\/th><\/tr><\/thead><tbody><tr><td>Conductor<\/td><td>Finely stranded bare electrolytic copper<\/td><td>Supports repeated movement and current transfer<\/td><\/tr><tr><td>Conductor class<\/td><td>Class 5 acc. to VDE 0295<\/td><td>Flexibility class for dynamic installation and termination<\/td><\/tr><tr><td>Core arrangement<\/td><td>Cores arranged in layers<\/td><td>Reduces package diameter and controls the round load path<\/td><\/tr><tr><td>Core insulation<\/td><td>EPR compound<\/td><td>Electrical and thermal insulation for the mobile cable<\/td><\/tr><tr><td>Conductor coding<\/td><td>Up to 5 cores: coloured acc. to VDE 0293; from 6: light-coloured insulation with black numerals, with\/without GN\/YE<\/td><td>Wiring and replacement control<\/td><\/tr><tr><td>Outer sheath<\/td><td>Abrasion-resistant special rubber compound, at least 5GM3 in additional data<\/td><td>Wear barrier in medium-to-high speed and acceleration service<\/td><\/tr><tr><td>Colour<\/td><td>Black<\/td><td>Optical-fibre data rows separately state orange<\/td><\/tr><tr><td>Screened types<\/td><td>(N)GRDGOEU, (N)GRDGCGOEU<\/td><td>Braided copper screen for electromagnetic-interference resistance<\/td><\/tr><tr><td>Overall screen<\/td><td>Tinned copper braid; overview approx. 85%, detailed data at least 80%<\/td><td>Coverage statement depends on the referenced screen object<\/td><\/tr><tr><td>Individually screened cores<\/td><td>At least 60% surface coverage<\/td><td>Confirm individual-core construction where required<\/td><\/tr><tr><td>Twisted and screened pairs<\/td><td>At least 80% surface coverage<\/td><td>Confirm pair-level screen and termination<\/td><\/tr><\/tbody><\/table><\/div>\n <p class=\"note\"><strong>Engineering interpretation.<\/strong> \u201cUnlimited resistance to atmospheric corrosion\u201d is valuable for coastal terminals, ship unloaders, steel plants and bulk-handling equipment, but the cable still needs a controlled installation. Corrosive atmosphere, abrasion and acceleration act through different failure mechanisms.<\/p>\n <\/section>\n\n <div class=\"svg\"><div><svg xmlns=\"http:\/\/www.w3.org\/2000\/svg\" width=\"1900\" height=\"1110\" viewBox=\"0 0 1900 1110\" role=\"img\" aria-label=\"TXG and TXG-D applications in container cranes, stacker reclaimers, ship unloaders and process cranes\">\n<defs><linearGradient id=\"ga-sky\" x1=\"0\" x2=\"0\" y1=\"0\" y2=\"1\"><stop stop-color=\"#0b4051\"\/><stop offset=\"1\" stop-color=\"#06131b\"\/><\/linearGradient><marker id=\"ga-arrow\" markerWidth=\"12\" markerHeight=\"12\" refX=\"10\" refY=\"4\" orient=\"auto\"><path d=\"M0 0L12 4L0 8Z\" fill=\"#d9edf0\"\/><\/marker><\/defs>\n<rect width=\"1900\" height=\"1110\" fill=\"url(#ga-sky)\"\/><rect y=\"815\" width=\"1900\" height=\"295\" fill=\"#09222b\"\/>\n<text x=\"60\" y=\"62\" fill=\"#55dff7\" font-family=\"Arial\" font-size=\"36\" font-weight=\"700\">TXG \/ TXG-D \u2014 continuous heavy-duty application map<\/text>\n<text x=\"60\" y=\"102\" fill=\"#adc4ce\" font-family=\"Arial\" font-size=\"18\">A high-resilience round cable for mobile power, control, bus and optical-fibre transmission in harsh material-handling environments.<\/text>\n<g font-family=\"Arial\" fill=\"#eaf6f8\">\n <rect x=\"65\" y=\"160\" width=\"820\" height=\"585\" rx=\"22\" fill=\"#0b222d\" stroke=\"#55dff7\" stroke-width=\"4\"\/>\n <text x=\"120\" y=\"225\" font-size=\"29\" font-weight=\"700\" fill=\"#55dff7\">A. Container-crane trolley<\/text>\n <path d=\"M125 315H805\" stroke=\"#b9d5d4\" stroke-width=\"15\"\/><path d=\"M125 294H805\" stroke=\"#e4c779\" stroke-width=\"4\"\/>\n <g fill=\"#294950\" stroke=\"#d9edf0\" stroke-width=\"4\"><rect x=\"270\" y=\"360\" width=\"112\" height=\"78\" rx=\"10\"\/><circle cx=\"297\" cy=\"455\" r=\"16\"\/><circle cx=\"355\" cy=\"455\" r=\"16\"\/><rect x=\"550\" y=\"360\" width=\"112\" height=\"78\" rx=\"10\"\/><circle cx=\"577\" cy=\"455\" r=\"16\"\/><circle cx=\"635\" cy=\"455\" r=\"16\"\/><\/g>\n <path d=\"M325 437C325 635 605 635 605 437\" fill=\"none\" stroke=\"#101016\" stroke-width=\"90\"\/><path d=\"M325 437C325 635 605 635 605 437\" fill=\"none\" stroke=\"#55dff7\" stroke-width=\"52\"\/>\n <path d=\"M175 265H765\" stroke=\"#ff9297\" stroke-width=\"5\" marker-end=\"url(#ga-arrow)\"\/><text x=\"305\" y=\"250\" font-size=\"20\" fill=\"#ff9297\">travel up to 240 m\/min<\/text><text x=\"120\" y=\"690\" font-size=\"19\">container crane trolley power supply \u00b7 control and data<\/text>\n <rect x=\"940\" y=\"160\" width=\"890\" height=\"585\" rx=\"22\" fill=\"#0b222d\" stroke=\"#e4c779\" stroke-width=\"4\"\/>\n <text x=\"995\" y=\"225\" font-size=\"29\" font-weight=\"700\" fill=\"#e4c779\">B. Bulk handling and process machinery<\/text>\n <g fill=\"#294950\" stroke=\"#d9edf0\" stroke-width=\"4\"><rect x=\"1020\" y=\"350\" width=\"240\" height=\"150\" rx=\"12\"\/><path d=\"M1038 455H1242\" stroke=\"#55dff7\" stroke-width=\"14\"\/><circle cx=\"1060\" cy=\"525\" r=\"18\"\/><circle cx=\"1220\" cy=\"525\" r=\"18\"\/><path d=\"M1400 340L1715 340L1660 545L1455 545Z\" fill=\"#1a3943\"\/><path d=\"M1440 580H1705\" stroke=\"#55dff7\" stroke-width=\"16\"\/><circle cx=\"1480\" cy=\"620\" r=\"17\"\/><circle cx=\"1645\" cy=\"620\" r=\"17\"\/><\/g>\n <text x=\"1015\" y=\"580\" font-size=\"20\">process crane \/ transfer carrier<\/text><text x=\"1395\" y=\"665\" font-size=\"20\">stacker \/ reclaimer \u00b7 ship unloader<\/text><text x=\"1015\" y=\"700\" font-size=\"18\" fill=\"#ffaaa5\">Car dumpers, foundry cranes and steel-mill machinery add impact, heat, dust and corrosion exposure.<\/text>\n <rect x=\"65\" y=\"890\" width=\"1765\" height=\"95\" rx=\"12\" fill=\"#081b24\" stroke=\"#315b6f\" stroke-width=\"2\"\/><text x=\"100\" y=\"929\" font-size=\"18\" fill=\"#ffaaa5\">System boundary:<\/text><text x=\"250\" y=\"929\" font-size=\"18\">240 m\/min is the supplied TXG \/ TXG-D travel value; actual life depends on trolley spacing, acceleration, guide force, cable mass and bend radius.<\/text><text x=\"100\" y=\"959\" font-size=\"17\" fill=\"#adc4ce\">The \u201cunlimited atmospheric corrosion resistance\u201d statement still requires compatibility review for the actual media and cleaning process.<\/text>\n<\/g>\n<\/svg><\/div><div class=\"svg-caption\">Figure 2 \u2014 supplied application scope: container cranes, process cranes, foundries, steel mills, stacker\/reclaimers, ship unloaders and transport carriers.<\/div><\/div>\n\n <section id=\"matrices\">\n <h2>Complete TXG \/ TXG-D order matrices<\/h2>\n <p>The tables preserve all supplied conductor schedules, part numbers, diameter ranges, copper indexes, approximate weights, permitted tensile loads and minimum-order quantities. A dash is retained as supplied. The optical-fibre rows use a dash for copper index because the supplied record does not assign a copper-index value to those fibre constructions.<\/p>\n <div class=\"scroll\"><table><caption>Control cable TXG \u2014 0.6\/1 kV; complete source matrix supplied for this article<\/caption><thead><tr><th>Cable family<\/th><th>Conductors \/ construction<\/th><th>Part No.<\/th><th>Outer \u00d8 min\/max [mm]<\/th><th>Cu approx. [kg\/km]<\/th><th>Weight approx. [kg\/km]<\/th><th>Permitted tensile load [N]<\/th><th>U\u2080\/U<\/th><th>Minimum order quantity [m]<\/th><\/tr><\/thead><tbody><tr><td class=\"key\">Control cable TXG<\/td><td>12 G 2.5<\/td><td><code>131220-R12G2,5#<\/code><\/td><td>18.0 \u2013 20.0<\/td><td>288<\/td><td>600<\/td><td>450<\/td><td>0.6\/1 kV<\/td><td>–<\/td><\/tr><tr><td class=\"key\">Control cable TXG<\/td><td>18 G 2.5<\/td><td><code>131220-R18G2,5#<\/code><\/td><td>21.5 \u2013 23.5<\/td><td>432<\/td><td>870<\/td><td>670<\/td><td>0.6\/1 kV<\/td><td>–<\/td><\/tr><tr><td class=\"key\">Control cable TXG<\/td><td>24 G 2.5<\/td><td><code>131220-R24G2,5#<\/code><\/td><td>24.0 \u2013 27.0<\/td><td>576<\/td><td>1140<\/td><td>900<\/td><td>0.6\/1 kV<\/td><td>–<\/td><\/tr><tr><td class=\"key\">Control cable TXG<\/td><td>30 G 2.5<\/td><td><code>131220-R30G2,5#<\/code><\/td><td>26.4 \u2013 29.4<\/td><td>720<\/td><td>1360<\/td><td>1120<\/td><td>0.6\/1 kV<\/td><td>–<\/td><\/tr><tr><td class=\"key\">Control cable TXG<\/td><td>36 G 2.5<\/td><td><code>131220-R36G2,5#<\/code><\/td><td>28.7 \u2013 31.7<\/td><td>864<\/td><td>1550<\/td><td>1350<\/td><td>0.6\/1 kV<\/td><td>500<\/td><\/tr><\/tbody><\/table><\/div><div class=\"scroll\"><table><caption>Data cable TXG-D \u2014 TXG-D data rows \u2014 voltage not stated in supplied line; complete source matrix supplied for this article<\/caption><thead><tr><th>Cable family<\/th><th>Conductors \/ construction<\/th><th>Part No.<\/th><th>Outer \u00d8 min\/max [mm]<\/th><th>Cu approx. [kg\/km]<\/th><th>Weight approx. [kg\/km]<\/th><th>Permitted tensile load [N]<\/th><th>U\u2080\/U<\/th><th>Minimum order quantity [m]<\/th><\/tr><\/thead><tbody><tr><td class=\"key\">Data cable TXG-D<\/td><td>6 \u00d7 (2\u00d70.5)C<\/td><td><code>131222-R6X(2X0,5)C#<\/code><\/td><td>21.6 \u2013 24.6<\/td><td>358<\/td><td>800<\/td><td>90<\/td><td>TXG-D data rows \u2014 voltage not stated in supplied line<\/td><td>500<\/td><\/tr><tr><td class=\"key\">Data cable TXG-D<\/td><td>6 \u00d7 (2\u00d71)C<\/td><td><code>131322-R6X(2X1)C#<\/code><\/td><td>27.0 \u2013 30.2<\/td><td>427<\/td><td>1230<\/td><td>180<\/td><td>TXG-D data rows \u2014 voltage not stated in supplied line<\/td><td>–<\/td><\/tr><tr><td class=\"key\">Data cable TXG-D<\/td><td>9 \u00d7 (2\u00d71)C<\/td><td><code>131322-R9X(2X1)C#<\/code><\/td><td>35.3 \u2013 38.3<\/td><td>641<\/td><td>1930<\/td><td>270<\/td><td>TXG-D data rows \u2014 voltage not stated in supplied line<\/td><td>300<\/td><\/tr><tr><td class=\"key\">Data cable TXG-D<\/td><td>* 24 G 62,5\/125<\/td><td><code>131320-R24G62,5\/125-X#<\/code><\/td><td>10.0 \u2013 11.0<\/td><td>–<\/td><td>110<\/td><td>2000<\/td><td>TXG-D data rows \u2014 voltage not stated in supplied line<\/td><td>–<\/td><\/tr><tr><td class=\"key\">Data cable TXG-D<\/td><td>* 24 G 50\/125<\/td><td><code>131320-R24G50\/125-X#<\/code><\/td><td>10.0 \u2013 11.0<\/td><td>–<\/td><td>110<\/td><td>2000<\/td><td>TXG-D data rows \u2014 voltage not stated in supplied line<\/td><td>–<\/td><\/tr><tr><td class=\"key\">Data cable TXG-D<\/td><td>* 24 E 9\/125<\/td><td><code>131320-R24E9\/125-X#<\/code><\/td><td>10.0 \u2013 11.0<\/td><td>–<\/td><td>110<\/td><td>2000<\/td><td>TXG-D data rows \u2014 voltage not stated in supplied line<\/td><td>–<\/td><\/tr><\/tbody><\/table><\/div><div class=\"scroll\"><table><caption>Power cable TXG \u2014 0.6\/1 kV; complete source matrix supplied for this article<\/caption><thead><tr><th>Cable family<\/th><th>Conductors \/ construction<\/th><th>Part No.<\/th><th>Outer \u00d8 min\/max [mm]<\/th><th>Cu approx. [kg\/km]<\/th><th>Weight approx. [kg\/km]<\/th><th>Permitted tensile load [N]<\/th><th>U\u2080\/U<\/th><th>Minimum order quantity [m]<\/th><\/tr><\/thead><tbody><tr><td class=\"key\">Power cable TXG<\/td><td>1 \u00d7 35<\/td><td><code>131120-R1X35#<\/code><\/td><td>12.3 \u2013 13.9<\/td><td>336<\/td><td>430<\/td><td>520<\/td><td>0.6\/1 kV<\/td><td>–<\/td><\/tr><tr><td class=\"key\">Power cable TXG<\/td><td>1 \u00d7 70<\/td><td><code>131120-R1X70#<\/code><\/td><td>16.3 \u2013 18.3<\/td><td>672<\/td><td>830<\/td><td>1050<\/td><td>0.6\/1 kV<\/td><td>–<\/td><\/tr><tr><td class=\"key\">Power cable TXG<\/td><td>1 \u00d7 95<\/td><td><code>131120-R1X95#<\/code><\/td><td>18.5 \u2013 20.5<\/td><td>912<\/td><td>1070<\/td><td>1420<\/td><td>0.6\/1 kV<\/td><td>–<\/td><\/tr><tr><td class=\"key\">Power cable TXG<\/td><td>1 \u00d7 120<\/td><td><code>131120-R1X120#<\/code><\/td><td>20.3 \u2013 22.3<\/td><td>1152<\/td><td>1330<\/td><td>1800<\/td><td>0.6\/1 kV<\/td><td>–<\/td><\/tr><tr><td class=\"key\">Power cable TXG<\/td><td>1 \u00d7 150<\/td><td><code>131120-R1X150#<\/code><\/td><td>22.7 \u2013 24.7<\/td><td>1440<\/td><td>1640<\/td><td>2250<\/td><td>0.6\/1 kV<\/td><td>–<\/td><\/tr><tr><td class=\"key\">Power cable TXG<\/td><td>1 \u00d7 185<\/td><td><code>131120-R1X185#<\/code><\/td><td>24.6 \u2013 27.6<\/td><td>1776<\/td><td>2010<\/td><td>2770<\/td><td>0.6\/1 kV<\/td><td>500<\/td><\/tr><tr><td class=\"key\">Power cable TXG<\/td><td>4 G 4<\/td><td><code>131120-R4G4#<\/code><\/td><td>13.6 \u2013 15.2<\/td><td>154<\/td><td>350<\/td><td>240<\/td><td>0.6\/1 kV<\/td><td>–<\/td><\/tr><tr><td class=\"key\">Power cable TXG<\/td><td>4 G 6<\/td><td><code>131120-R4G6#<\/code><\/td><td>15.9 \u2013 17.9<\/td><td>230<\/td><td>480<\/td><td>360<\/td><td>0.6\/1 kV<\/td><td>–<\/td><\/tr><tr><td class=\"key\">Power cable TXG<\/td><td>4 G 10<\/td><td><code>131120-R4G10#<\/code><\/td><td>18.0 \u2013 20.0<\/td><td>384<\/td><td>680<\/td><td>600<\/td><td>0.6\/1 kV<\/td><td>–<\/td><\/tr><tr><td class=\"key\">Power cable TXG<\/td><td>4 G 16<\/td><td><code>131120-R4G16#<\/code><\/td><td>23.3 \u2013 25.3<\/td><td>614<\/td><td>1110<\/td><td>960<\/td><td>0.6\/1 kV<\/td><td>–<\/td><\/tr><tr><td class=\"key\">Power cable TXG<\/td><td>4 G 25<\/td><td><code>131120-R4G25#<\/code><\/td><td>26.9 \u2013 29.9<\/td><td>960<\/td><td>1610<\/td><td>1500<\/td><td>0.6\/1 kV<\/td><td>–<\/td><\/tr><tr><td class=\"key\">Power cable TXG<\/td><td>4 G 35<\/td><td><code>131120-R4G35#<\/code><\/td><td>30.1 \u2013 33.1<\/td><td>1344<\/td><td>2100<\/td><td>2100<\/td><td>0.6\/1 kV<\/td><td>300<\/td><\/tr><tr><td class=\"key\">Power cable TXG<\/td><td>4 G 50<\/td><td><code>131120-R4G50#<\/code><\/td><td>36.1 \u2013 39.1<\/td><td>1920<\/td><td>3010<\/td><td>3000<\/td><td>0.6\/1 kV<\/td><td>–<\/td><\/tr><tr><td class=\"key\">Power cable TXG<\/td><td>5 G 4<\/td><td><code>131120-R5G4#<\/code><\/td><td>15.7 \u2013 17.7<\/td><td>192<\/td><td>450<\/td><td>300<\/td><td>0.6\/1 kV<\/td><td>–<\/td><\/tr><tr><td class=\"key\">Power cable TXG<\/td><td>5 G 6<\/td><td><code>131120-R5G6#<\/code><\/td><td>17.5 \u2013 19.5<\/td><td>288<\/td><td>580<\/td><td>450<\/td><td>0.6\/1 kV<\/td><td>–<\/td><\/tr><tr><td class=\"key\">Power cable TXG<\/td><td>5 G 10<\/td><td><code>131120-R5G10#<\/code><\/td><td>20.2 \u2013 22.2<\/td><td>480<\/td><td>860<\/td><td>750<\/td><td>0.6\/1 kV<\/td><td>1000<\/td><\/tr><tr><td class=\"key\">Power cable TXG<\/td><td>5 G 16<\/td><td><code>131120-R5G16#<\/code><\/td><td>24.5 \u2013 27.5<\/td><td>768<\/td><td>1340<\/td><td>1200<\/td><td>0.6\/1 kV<\/td><td>–<\/td><\/tr><tr><td class=\"key\">Power cable TXG<\/td><td>5 G 25<\/td><td><code>131120-R5G25#<\/code><\/td><td>29.9 \u2013 32.9<\/td><td>1200<\/td><td>1990<\/td><td>1870<\/td><td>0.6\/1 kV<\/td><td>–<\/td><\/tr><tr><td class=\"key\">Power cable TXG<\/td><td>5 G 35<\/td><td><code>131120-R5G35#<\/code><\/td><td>34.7 \u2013 37.7<\/td><td>1680<\/td><td>2700<\/td><td>2620<\/td><td>0.6\/1 kV<\/td><td>500<\/td><\/tr><\/tbody><\/table><\/div><div class=\"scroll\"><table><caption>Screened power cable TXG \u2014 0.6\/1 kV; complete source matrix supplied for this article<\/caption><thead><tr><th>Cable family<\/th><th>Conductors \/ construction<\/th><th>Part No.<\/th><th>Outer \u00d8 min\/max [mm]<\/th><th>Cu approx. [kg\/km]<\/th><th>Weight approx. [kg\/km]<\/th><th>Permitted tensile load [N]<\/th><th>U\u2080\/U<\/th><th>Minimum order quantity [m]<\/th><\/tr><\/thead><tbody><tr><td class=\"key\">Screened power cable TXG<\/td><td>4 G 4C<\/td><td><code>131129-R4G4C#<\/code><\/td><td>14.8 \u2013 17.8<\/td><td>277<\/td><td>480<\/td><td>240<\/td><td>0.6\/1 kV<\/td><td>1000<\/td><\/tr><tr><td class=\"key\">Screened power cable TXG<\/td><td>4 G 6C<\/td><td><code>131129-R4G6C#<\/code><\/td><td>16.2 \u2013 19.2<\/td><td>402<\/td><td>640<\/td><td>360<\/td><td>0.6\/1 kV<\/td><td>1000<\/td><\/tr><tr><td class=\"key\">Screened power cable TXG<\/td><td>4 G 10C<\/td><td><code>131129-R4G10C#<\/code><\/td><td>19.6 \u2013 22.6<\/td><td>610<\/td><td>890<\/td><td>600<\/td><td>0.6\/1 kV<\/td><td>–<\/td><\/tr><tr><td class=\"key\">Screened power cable TXG<\/td><td>3 \u00d7 16 + 3G2.5C<\/td><td><code>131129-R3X16+3G2,5C#<\/code><\/td><td>22.4 \u2013 25.4<\/td><td>758<\/td><td>1150<\/td><td>720<\/td><td>0.6\/1 kV<\/td><td>–<\/td><\/tr><tr><td class=\"key\">Screened power cable TXG<\/td><td>3 \u00d7 25 + 3G4C<\/td><td><code>131129-R3X25+3G4C#<\/code><\/td><td>25.4 \u2013 28.4<\/td><td>1134<\/td><td>1590<\/td><td>1125<\/td><td>0.6\/1 kV<\/td><td>–<\/td><\/tr><tr><td class=\"key\">Screened power cable TXG<\/td><td>3 \u00d7 35 + 3G6C<\/td><td><code>131129-R3X35+3G6C#<\/code><\/td><td>29.3 \u2013 32.3<\/td><td>1547<\/td><td>2160<\/td><td>1575<\/td><td>0.6\/1 kV<\/td><td>500<\/td><\/tr><tr><td class=\"key\">Screened power cable TXG<\/td><td>3 \u00d7 50 + 3G10C<\/td><td><code>131129-R3X50+3G10C#<\/code><\/td><td>35.4 \u2013 38.4<\/td><td>2181<\/td><td>3060<\/td><td>2250<\/td><td>0.6\/1 kV<\/td><td>500<\/td><\/tr><\/tbody><\/table><\/div>\n <div class=\"warn\"><strong>Source-format note.<\/strong> The supplied order-table heading includes \u201cMinimum Order Quantity [m]\u201d and a footnote marker, but no footnote text was included. The rows are therefore retained exactly with the stated quantities and dashes; no hidden MOQ has been inferred. The data note \u201c* colour orange\u201d is preserved in the data section.<\/div>\n <h3>How to use the matrix in a replacement RFQ<\/h3>\n <div class=\"formula\">1. Freeze the media: power, control, bus, copper pair or optical fibre.\n2. Freeze the conductor schedule and screen requirement.\n3. Use the exact outer \u00d8 min\/max for trolley, chain and clamp clearance.\n4. Use weight and permitted tensile load in the machine load calculation.\n5. Carry the minimum order quantity into the commercial request.\n6. Confirm radius, temperature, tests, approvals and termination before release.<\/div>\n <\/section>\n\n <div class=\"svg\"><div><svg xmlns=\"http:\/\/www.w3.org\/2000\/svg\" width=\"1900\" height=\"1060\" viewBox=\"0 0 1900 1060\" role=\"img\" aria-label=\"TXG travel speed and bending radius engineering diagram\">\n<defs><marker id=\"gr-arrow\" markerWidth=\"12\" markerHeight=\"12\" refX=\"10\" refY=\"4\" orient=\"auto\"><path d=\"M0 0L12 4L0 8Z\" fill=\"#d9edf0\"\/><\/marker><\/defs>\n<rect width=\"1900\" height=\"1060\" fill=\"#06131b\"\/>\n<text x=\"60\" y=\"62\" fill=\"#55dff7\" font-family=\"Arial\" font-size=\"36\" font-weight=\"700\">Dynamic duty \u2014 speed and radius must be checked together<\/text>\n<text x=\"60\" y=\"102\" fill=\"#adc4ce\" font-family=\"Arial\" font-size=\"18\">TXG: up to 240 m\/min \u00b7 dynamic minimum bending radius according to DIN VDE 0298 Part 3 \u00b7 optical-fibre cable value 125 mm.<\/text>\n<g font-family=\"Arial\" fill=\"#eaf6f8\">\n <rect x=\"70\" y=\"170\" width=\"830\" height=\"570\" rx=\"22\" fill=\"#0b222d\" stroke=\"#55dff7\" stroke-width=\"4\"\/>\n <text x=\"130\" y=\"235\" font-size=\"30\" font-weight=\"700\" fill=\"#55dff7\">Controlled festoon motion<\/text>\n <path d=\"M135 325H820\" stroke=\"#b9d5d4\" stroke-width=\"15\"\/><path d=\"M135 304H820\" stroke=\"#e4c779\" stroke-width=\"4\"\/>\n <g fill=\"#294950\" stroke=\"#d9edf0\" stroke-width=\"4\"><rect x=\"250\" y=\"365\" width=\"120\" height=\"80\" rx=\"10\"\/><circle cx=\"282\" cy=\"462\" r=\"16\"\/><circle cx=\"338\" cy=\"462\" r=\"16\"\/><rect x=\"570\" y=\"365\" width=\"120\" height=\"80\" rx=\"10\"\/><circle cx=\"602\" cy=\"462\" r=\"16\"\/><circle cx=\"658\" cy=\"462\" r=\"16\"\/><\/g>\n <path d=\"M310 444C310 640 630 640 630 444\" fill=\"none\" stroke=\"#101016\" stroke-width=\"90\"\/><path d=\"M310 444C310 640 630 640 630 444\" fill=\"none\" stroke=\"#55dff7\" stroke-width=\"52\"\/>\n <path d=\"M185 270H745\" stroke=\"#ff9297\" stroke-width=\"5\" marker-end=\"url(#gr-arrow)\"\/><text x=\"305\" y=\"254\" font-size=\"20\" fill=\"#ff9297\">\u2264 240 m\/min<\/text><text x=\"125\" y=\"690\" font-size=\"19\">speed, acceleration and loop geometry are one calculation<\/text>\n <rect x=\"955\" y=\"170\" width=\"865\" height=\"570\" rx=\"22\" fill=\"#0b222d\" stroke=\"#e4c779\" stroke-width=\"4\"\/>\n <text x=\"1015\" y=\"235\" font-size=\"30\" font-weight=\"700\" fill=\"#e4c779\">Radius basis<\/text>\n <path d=\"M1040 575C1040 315 1470 315 1470 575\" fill=\"none\" stroke=\"#101016\" stroke-width=\"105\"\/><path d=\"M1040 575C1040 315 1470 315 1470 575\" fill=\"none\" stroke=\"#e4c779\" stroke-width=\"62\"\/><path d=\"M1040 575H1470\" stroke=\"#a6ded9\" stroke-width=\"4\" stroke-dasharray=\"14 10\"\/><path d=\"M1050 270H1485\" stroke=\"#ff9297\" stroke-width=\"5\" marker-end=\"url(#gr-arrow)\"\/><text x=\"1130\" y=\"250\" font-size=\"21\" fill=\"#ff9297\">dynamic radius according to DIN VDE 0298 Part 3<\/text>\n <text x=\"1515\" y=\"430\" font-size=\"23\" fill=\"#e4c779\">Optical-fibre cables:<\/text><text x=\"1515\" y=\"475\" font-size=\"34\" font-weight=\"700\" fill=\"#55dff7\">125 mm<\/text><text x=\"1515\" y=\"525\" font-size=\"18\">supplied optical-fibre value<\/text><text x=\"1515\" y=\"580\" font-size=\"18\" fill=\"#ffaaa5\">not a replacement for the<\/text><text x=\"1515\" y=\"610\" font-size=\"18\" fill=\"#ffaaa5\">selected installation rule<\/text>\n <rect x=\"70\" y=\"875\" width=\"1750\" height=\"92\" rx=\"12\" fill=\"#081b24\" stroke=\"#315b6f\" stroke-width=\"2\"\/><text x=\"105\" y=\"914\" font-size=\"18\" fill=\"#ffaaa5\">Engineering rule:<\/text><text x=\"250\" y=\"914\" font-size=\"18\">do not trade a smaller radius for speed. Verify the cable\u2019s outer diameter, guide clearance, acceleration, fibre type and complete travel path.<\/text><text x=\"105\" y=\"945\" font-size=\"17\" fill=\"#adc4ce\">The 125 mm value is explicitly supplied for optical-fibre cables; general TXG dynamic radius remains tied to DIN VDE 0298 Part 3.<\/text>\n<\/g>\n<\/svg><\/div><div class=\"svg-caption\">Figure 3 \u2014 TXG dynamic travel and bending-radius logic. The 125 mm value is specific to optical-fibre cables in the supplied record.<\/div><\/div>\n\n <section id=\"dynamics\">\n <h2>240 m\/min movement and bending-radius engineering<\/h2>\n <p>A high travel-speed rating is meaningful only when the mechanical system is equally well designed. The supplied TXG \/ TXG-D record gives <strong>up to 240 m\/min<\/strong>, while the dynamic minimum radius is referenced to <strong>DIN VDE 0298 Part 3<\/strong>. For optical-fibre cables, the same record separately gives <strong>125 mm<\/strong>.<\/p>\n <p>In practical crane work, the cable experiences more than pure bending. Acceleration creates longitudinal force; the chain or trolley creates guide pressure; adjacent cables can rub; and the cable may be forced toward an edge during braking. A correct cable order therefore needs the machine travel profile, trolley spacing, chain dimensions, support method and end restraint\u2014not just a nominal cross-section.<\/p>\n <div class=\"grid\">\n <div class=\"box\"><h3>High-cycle movement<\/h3><p>Frequent and continuous bending is one of the stated reasons to select TXG. Confirm that the actual speed and cycle profile stay within the released application.<\/p><\/div>\n <div class=\"box\"><h3>Optical fibre<\/h3><p>The supplied 125 mm value is an optical-fibre cable minimum. Do not replace it with a generic power-cable radius or infer a smaller value from the outer diameter.<\/p><\/div>\n <div class=\"box\"><h3>Acceleration<\/h3><p>Permitted tensile load is listed in each row, but dynamic machine force also depends on acceleration, cable mass, span, guide friction and end grip.<\/p><\/div>\n <div class=\"box\"><h3>Temperature<\/h3><p>TXG reaches down to \u221235\u00b0C in flexing use. TXG-D 24 FO has a different flexing upper limit of +60\u00b0C. Select the branch before approving the environmental envelope.<\/p><\/div>\n <\/div>\n <\/section>\n\n <div class=\"svg\"><div><svg xmlns=\"http:\/\/www.w3.org\/2000\/svg\" width=\"1900\" height=\"1110\" viewBox=\"0 0 1900 1110\" role=\"img\" aria-label=\"Schematic screened TXG three-phase plus split-earth power cable and screen coverage layers\">\n<defs><radialGradient id=\"sp-cu\" cx=\".25\" cy=\".2\"><stop stop-color=\"#f8d18f\"\/><stop offset=\".65\" stop-color=\"#bb6c34\"\/><stop offset=\"1\" stop-color=\"#5f2c18\"\/><\/radialGradient><pattern id=\"sp-braid\" width=\"20\" height=\"20\" patternUnits=\"userSpaceOnUse\"><path d=\"M-4 4L4-4M0 20L20 0M16 24L24 16\" stroke=\"#e4c779\" stroke-width=\"4\"\/><\/pattern><marker id=\"sp-arrow\" markerWidth=\"12\" markerHeight=\"12\" refX=\"10\" refY=\"4\" orient=\"auto\"><path d=\"M0 0L12 4L0 8Z\" fill=\"#d9edf0\"\/><\/marker><\/defs>\n<rect width=\"1900\" height=\"1110\" fill=\"#06131b\"\/>\n<text x=\"60\" y=\"62\" fill=\"#55dff7\" font-family=\"Arial\" font-size=\"36\" font-weight=\"700\">Screened TXG power \u2014 three phases plus split-earth construction<\/text>\n<text x=\"60\" y=\"102\" fill=\"#adc4ce\" font-family=\"Arial\" font-size=\"18\">The screen is part of the EMC system; coverage values remain separated by object and source layer.<\/text>\n<g font-family=\"Arial\" fill=\"#eaf6f8\">\n <circle cx=\"515\" cy=\"535\" r=\"355\" fill=\"#173541\" stroke=\"#8ab8ba\" stroke-width=\"16\"\/><circle cx=\"515\" cy=\"535\" r=\"300\" fill=\"url(#sp-braid)\" stroke=\"#e4c779\" stroke-width=\"14\"\/><circle cx=\"515\" cy=\"535\" r=\"257\" fill=\"#102b35\" stroke=\"#a6ded9\" stroke-width=\"8\"\/>\n <g fill=\"url(#sp-cu)\" stroke=\"#eef6ef\" stroke-width=\"6\"><circle cx=\"410\" cy=\"455\" r=\"98\"\/><circle cx=\"620\" cy=\"455\" r=\"98\"\/><circle cx=\"515\" cy=\"645\" r=\"98\"\/><\/g><g fill=\"#d9e5bd\" stroke=\"#eef6ef\" stroke-width=\"5\"><circle cx=\"380\" cy=\"630\" r=\"52\"\/><circle cx=\"650\" cy=\"630\" r=\"52\"\/><\/g>\n <text x=\"375\" y=\"463\" fill=\"#0a1d24\" font-size=\"24\" font-weight=\"700\">L1<\/text><text x=\"585\" y=\"463\" fill=\"#0a1d24\" font-size=\"24\" font-weight=\"700\">L2<\/text><text x=\"480\" y=\"653\" fill=\"#0a1d24\" font-size=\"24\" font-weight=\"700\">L3<\/text><text x=\"350\" y=\"638\" fill=\"#0a1d24\" font-size=\"18\" font-weight=\"700\">E<\/text><text x=\"620\" y=\"638\" fill=\"#0a1d24\" font-size=\"18\" font-weight=\"700\">E<\/text>\n <line x1=\"880\" y1=\"250\" x2=\"1220\" y2=\"185\" stroke=\"#d9edf0\" stroke-width=\"3\" marker-end=\"url(#sp-arrow)\"\/><text x=\"1260\" y=\"181\" font-size=\"24\" font-weight=\"700\" fill=\"#e4c779\">Overall screen<\/text><text x=\"1260\" y=\"213\" font-size=\"17\">Overview: optical cover approx. 85%.<\/text><text x=\"1260\" y=\"244\" font-size=\"17\">Additional data: at least 80% overall.<\/text>\n <line x1=\"850\" y1=\"430\" x2=\"1220\" y2=\"380\" stroke=\"#d9edf0\" stroke-width=\"3\" marker-end=\"url(#sp-arrow)\"\/><text x=\"1260\" y=\"376\" font-size=\"24\" font-weight=\"700\" fill=\"#a6ded9\">Individually screened cores<\/text><text x=\"1260\" y=\"408\" font-size=\"17\">Additional data: at least 60% surface coverage.<\/text>\n <line x1=\"820\" y1=\"610\" x2=\"1220\" y2=\"575\" stroke=\"#d9edf0\" stroke-width=\"3\" marker-end=\"url(#sp-arrow)\"\/><text x=\"1260\" y=\"571\" font-size=\"24\" font-weight=\"700\" fill=\"#55dff7\">Twisted and screened pairs<\/text><text x=\"1260\" y=\"603\" font-size=\"17\">Additional data: at least 80% surface coverage.<\/text>\n <line x1=\"770\" y1=\"770\" x2=\"1220\" y2=\"770\" stroke=\"#d9edf0\" stroke-width=\"3\" marker-end=\"url(#sp-arrow)\"\/><text x=\"1260\" y=\"766\" font-size=\"24\" font-weight=\"700\" fill=\"#bfe5a5\">Split earth conductors<\/text><text x=\"1260\" y=\"798\" font-size=\"17\">Verify the selected 3\u00d7phase + split-earth order row.<\/text>\n <rect x=\"65\" y=\"900\" width=\"1765\" height=\"94\" rx=\"12\" fill=\"#081b24\" stroke=\"#315b6f\" stroke-width=\"2\"\/><text x=\"100\" y=\"938\" font-size=\"18\" fill=\"#ffaaa5\">EMC point:<\/text><text x=\"220\" y=\"938\" font-size=\"18\">braid coverage alone does not create an EMC solution. The shield, gland, trolley bonding, cabinet entry and termination continuity must be designed as one path.<\/text><text x=\"100\" y=\"968\" font-size=\"17\" fill=\"#adc4ce\">Do not replace the supplied 85% overview value with the 80% detailed overall value without stating which screen object is being described.<\/text>\n<\/g>\n<\/svg><\/div><div class=\"svg-caption\">Figure 4 \u2014 screened TXG power architecture and the separate overall, individual-core and twisted-pair coverage statements.<\/div><\/div>\n\n <section id=\"screening\">\n <h2>Screened power, bus and optical-fibre engineering<\/h2>\n <p>TXG provides a broad family: control, power, bus and optical-fibre versions. The screened power rows include compact three-phase arrangements with split earth conductors, while the screened types use a tinned-copper braid to improve electromagnetic-interference resistance.<\/p>\n <p>Screen coverage must be specified by object. The supplied overview says overall braid coverage is approximately 85%. The additional technical data gives at least 80% overall, at least 60% for individually screened cores and at least 80% for twisted and shielded pairs. A purchase specification should identify which of these is required and how the screen is bonded at the cable entry, trolley and cabinet.<\/p>\n <div class=\"scroll\"><table><caption>Screen, optical-fibre and communication fields \u2014 supplied values<\/caption><thead><tr><th>Data \/ screen item<\/th><th>Supplied value<\/th><th>RFQ implication<\/th><\/tr><\/thead><tbody><tr><td>Overall braid in product overview<\/td><td>Tinned copper braid; optical cover approx. 85%<\/td><td>State whether this is the required overall construction<\/td><\/tr><tr><td>Overall shield in additional data<\/td><td>At least 80% surface covered<\/td><td>Do not silently replace the overview field; state the applicable product document<\/td><\/tr><tr><td>Individually screened cores<\/td><td>At least 60% surface covered<\/td><td>Use for individually screened constructions where applicable<\/td><\/tr><tr><td>Twisted and screened pairs<\/td><td>At least 80% surface covered<\/td><td>Specify pair-level screen and continuity test<\/td><\/tr><tr><td>Optical-fibre cable radius<\/td><td>125 mm<\/td><td>Include in the chain and guide design<\/td><\/tr><tr><td>FO availability<\/td><td>On request: 12, 18 or 24 fibres<\/td><td>Freeze fibre count before quotation<\/td><\/tr><tr><td>TXG-D FO colour<\/td><td>Orange<\/td><td>Confirm sheath colour and marking on the order<\/td><\/tr><\/tbody><\/table><\/div>\n <p class=\"note\"><strong>Fibre selection.<\/strong> The supplied matrix includes <code>24G62,5\/125<\/code>, <code>24G50\/125<\/code> and <code>24E9\/125<\/code>. These represent different optical media. The connector, attenuation, bandwidth, wavelength and test requirements must follow the chosen fibre type; outer diameter alone is not a sufficient selection rule.<\/p>\n <\/section>\n\n <section id=\"installation\">\n <h2>Installation, inspection and failure prevention<\/h2>\n <p>TXG is built for harsh mobile machinery, but the guide system remains part of the product. A worn separator, a sharp steel edge, a twisted trolley or a high-friction return path can damage the sheath and increase dynamic force. The right maintenance question is therefore not only \u201cis the cable flexible?\u201d but also \u201cwhat force is the machine applying to it?\u201d<\/p>\n <div class=\"grid\">\n <div class=\"box\"><h3>Installation<\/h3><ul><li>Verify outer-\u00d8 min\/max against trolley clip, chain cavity and separators.<\/li><li>Use the applicable DIN VDE 0298 Part 3 radius and the supplied 125 mm FO value where relevant.<\/li><li>Keep the cable free from sharp edges, compression and uncontrolled twist.<\/li><li>Use suitable end grips so tensile force is not transferred into the copper conductors.<\/li><li>Bond screens continuously at the intended cable-entry and cabinet interfaces.<\/li><\/ul><\/div>\n <div class=\"box\"><h3>Commissioning<\/h3><ul><li>Start at reduced speed and observe a complete travel cycle.<\/li><li>Check loop formation, trolley spacing, chain fill and return motion.<\/li><li>Verify conductor continuity, insulation resistance and screen continuity.<\/li><li>For fibre, test the selected type at the required wavelengths.<\/li><li>Record temperature, speed, acceleration and guide condition as baseline data.<\/li><\/ul><\/div>\n <div class=\"box\"><h3>Maintenance<\/h3><ul><li>Inspect rubber for cuts, notches, flattening, glazing and hardening.<\/li><li>Check trolley clips, chain links, rollers, separators and end clamps.<\/li><li>Inspect braid terminations and screen bonding for intermittent faults.<\/li><li>Watch for abnormal heating, control noise or fibre attenuation.<\/li><li>Replace cable where sheath, insulation, screen or fibre protection is compromised.<\/li><\/ul><\/div>\n <\/div>\n <div class=\"scroll\"><table><caption>TXG \/ TXG-D field troubleshooting guide \u2014 engineering interpretation<\/caption><thead><tr><th>Observed symptom<\/th><th>Likely mechanism<\/th><th>Engineering response<\/th><\/tr><\/thead><tbody><tr><td>Sheath wear on one side<\/td><td>Cable rubbing guide, separator or sharp steel edge<\/td><td>Remove the contact source and verify outer-\u00d8 clearance<\/td><\/tr><tr><td>Cable flattens at trolley<\/td><td>Incorrect clip, over-compression or chain fill<\/td><td>Use the correct support and recheck cable package geometry<\/td><\/tr><tr><td>Loops become uneven<\/td><td>Trolley spacing, acceleration or guide friction problem<\/td><td>Recalculate loop formation and inspect trolley running resistance<\/td><\/tr><tr><td>Screen continuity intermittent<\/td><td>Braid damage or poor bonding at termination<\/td><td>Repair the complete shield path and test through travel<\/td><\/tr><tr><td>Fibre attenuation increases<\/td><td>Microbending, excessive chain pressure or tight radius<\/td><td>Inspect radius, chain fill, guide pressure and optical test results<\/td><\/tr><tr><td>Conductor temperature rises<\/td><td>Overcurrent, grouping, ambient or heat dissipation<\/td><td>Recheck DIN VDE 0298-4 ampacity and installation derating<\/td><\/tr><tr><td>End clamp carries shock<\/td><td>Acceleration force or underspecified strain relief<\/td><td>Rework the load path and apply the project safety factor<\/td><\/tr><\/tbody><\/table><\/div>\n <\/section>\n\n <div class=\"svg\"><div><svg xmlns=\"http:\/\/www.w3.org\/2000\/svg\" width=\"1900\" height=\"1080\" viewBox=\"0 0 1900 1080\" role=\"img\" aria-label=\"TXG and TXG-D selection map for control power bus and optical fibre cables\">\n<defs><marker id=\"ss-arrow\" markerWidth=\"12\" markerHeight=\"12\" refX=\"10\" refY=\"4\" orient=\"auto\"><path d=\"M0 0L12 4L0 8Z\" fill=\"#d9edf0\"\/><\/marker><\/defs>\n<rect width=\"1900\" height=\"1080\" fill=\"#06131b\"\/>\n<text x=\"60\" y=\"62\" fill=\"#55dff7\" font-family=\"Arial\" font-size=\"36\" font-weight=\"700\">TXG \/ TXG-D selection map \u2014 freeze the media path before quotation<\/text>\n<text x=\"60\" y=\"102\" fill=\"#adc4ce\" font-family=\"Arial\" font-size=\"18\">TXG is a family, not one universal cable: control, power, bus and optical fibre rows have different geometry and release evidence.<\/text>\n<g font-family=\"Arial\" fill=\"#eaf6f8\">\n <rect x=\"70\" y=\"205\" width=\"300\" height=\"245\" rx=\"18\" fill=\"#0b222d\" stroke=\"#55dff7\" stroke-width=\"5\"\/><text x=\"130\" y=\"270\" font-size=\"28\" font-weight=\"700\" fill=\"#55dff7\">1 \u00b7 Duty<\/text><text x=\"115\" y=\"320\" font-size=\"20\">festoon trolley<\/text><text x=\"115\" y=\"360\" font-size=\"20\">up to 240 m\/min<\/text><text x=\"115\" y=\"400\" font-size=\"20\">high cycle \/ harsh air<\/text><path d=\"M370 330H490\" stroke=\"#d9edf0\" stroke-width=\"5\" marker-end=\"url(#ss-arrow)\"\/>\n <rect x=\"505\" y=\"160\" width=\"310\" height=\"335\" rx=\"18\" fill=\"#0b222d\" stroke=\"#e4c779\" stroke-width=\"4\"\/><text x=\"575\" y=\"225\" font-size=\"28\" font-weight=\"700\" fill=\"#e4c779\">2 \u00b7 Media<\/text><text x=\"575\" y=\"280\" font-size=\"21\">control<\/text><text x=\"575\" y=\"330\" font-size=\"21\">power<\/text><text x=\"575\" y=\"380\" font-size=\"21\">bus \/ paired data<\/text><text x=\"575\" y=\"430\" font-size=\"21\">optical fibre<\/text><path d=\"M815 270H945\" stroke=\"#d9edf0\" stroke-width=\"5\" marker-end=\"url(#ss-arrow)\"\/><path d=\"M815 395H945\" stroke=\"#d9edf0\" stroke-width=\"5\" marker-end=\"url(#ss-arrow)\"\/>\n <rect x=\"960\" y=\"130\" width=\"370\" height=\"230\" rx=\"18\" fill=\"#0b222d\" stroke=\"#a6ded9\" stroke-width=\"4\"\/><text x=\"1030\" y=\"195\" font-size=\"28\" font-weight=\"700\" fill=\"#a6ded9\">3A \u00b7 TXG<\/text><text x=\"1015\" y=\"245\" font-size=\"20\">0.6\/1 kV control \/ power<\/text><text x=\"1015\" y=\"285\" font-size=\"20\">EPR + synthetic rubber<\/text><text x=\"1015\" y=\"325\" font-size=\"17\" fill=\"#ffaaa5\">use exact order matrix<\/text>\n <rect x=\"960\" y=\"410\" width=\"370\" height=\"230\" rx=\"18\" fill=\"#0b222d\" stroke=\"#f0c865\" stroke-width=\"4\"\/><text x=\"1030\" y=\"475\" font-size=\"28\" font-weight=\"700\" fill=\"#f0c865\">3B \u00b7 TXG-D<\/text><text x=\"1015\" y=\"525\" font-size=\"20\">pairs \/ 24 FO options<\/text><text x=\"1015\" y=\"565\" font-size=\"20\">voltage: confirm release<\/text><text x=\"1015\" y=\"605\" font-size=\"17\" fill=\"#ffaaa5\">supplied record gives rows<\/text><path d=\"M1330 245H1460\" stroke=\"#d9edf0\" stroke-width=\"5\" marker-end=\"url(#ss-arrow)\"\/><path d=\"M1330 525H1460\" stroke=\"#d9edf0\" stroke-width=\"5\" marker-end=\"url(#ss-arrow)\"\/>\n <rect x=\"1475\" y=\"160\" width=\"350\" height=\"230\" rx=\"18\" fill=\"#0b222d\" stroke=\"#bfe5a5\" stroke-width=\"4\"\/><text x=\"1545\" y=\"225\" font-size=\"28\" font-weight=\"700\" fill=\"#bfe5a5\">4 \u00b7 Geometry<\/text><text x=\"1535\" y=\"275\" font-size=\"20\">outer \u00d8 min\/max<\/text><text x=\"1535\" y=\"315\" font-size=\"20\">weight \/ Cu index<\/text><text x=\"1535\" y=\"355\" font-size=\"20\">tensile load \/ MOQ<\/text>\n <rect x=\"1475\" y=\"460\" width=\"350\" height=\"230\" rx=\"18\" fill=\"#0b222d\" stroke=\"#ff9297\" stroke-width=\"4\"\/><text x=\"1545\" y=\"525\" font-size=\"28\" font-weight=\"700\" fill=\"#ff9297\">5 \u00b7 Release<\/text><text x=\"1535\" y=\"575\" font-size=\"20\">radius \/ screen<\/text><text x=\"1535\" y=\"615\" font-size=\"20\">test \/ approval<\/text><text x=\"1535\" y=\"655\" font-size=\"20\">termination \/ fibre plan<\/text>\n <rect x=\"70\" y=\"835\" width=\"1755\" height=\"100\" rx=\"12\" fill=\"#081b24\" stroke=\"#315b6f\" stroke-width=\"2\"\/><text x=\"105\" y=\"874\" font-size=\"18\" fill=\"#ffaaa5\">Selection rule:<\/text><text x=\"255\" y=\"874\" font-size=\"18\">do not choose a TXG-D optical row by its outer diameter alone. Confirm fibre type, attenuation, bandwidth, 125 mm optical-fibre radius and the required communication system.<\/text><text x=\"105\" y=\"906\" font-size=\"17\" fill=\"#adc4ce\">For TXG screened power, confirm whether the order is 3\u00d7phase + split earth and which screen-coverage field applies to the construction.<\/text>\n<\/g>\n<\/svg><\/div><div class=\"svg-caption\">Figure 5 \u2014 TXG \/ TXG-D selection flow from machine duty to media, order row, geometry and release documentation.<\/div><\/div>\n\n <section id=\"compliance\">\n <h2>Standards, approvals and Feichun certification capability<\/h2>\n <p>The supplied TXG record identifies <strong>TXG according to DIN VDE 0250-814 and GOST-R<\/strong>. It identifies <strong>TXG-D 24 FO according to DIN VDE 0888 and UL<\/strong>. The additional data also references VDE 0295 for conductor class, VDE 0293 for coding and DIN VDE 0298-4 for ampacity. The exact market, construction, test edition and approval scope must follow the final released product.<\/p>\n <p>For export projects, Feichun Cable can prepare a project-specific technical file and support the applicable certification \/ approval route, including <strong>ATEX, IECEx, VDE, CE, UKCA, EAC and the Russian Fire Safety Certificate<\/strong>. The approval scope must match the actual TXG \/ TXG-D construction, screen, fibre count, voltage, destination and installation duty; a generic certificate from a different product is not a substitute.<\/p>\n <div class=\"scroll\"><table><caption>Standards and approval map \u2014 product-specific release controls the claim<\/caption><thead><tr><th>Reference \/ approval<\/th><th>Relevance in the supplied record<\/th><th>Release control<\/th><\/tr><\/thead><tbody><tr><td>DIN VDE 0250-814<\/td><td>TXG standard \/ approval field<\/td><td>Confirm the exact TXG construction and edition<\/td><\/tr><tr><td>GOST-R<\/td><td>TXG approval field<\/td><td>Confirm destination-market scope and current document<\/td><\/tr><tr><td>DIN VDE 0888<\/td><td>TXG-D 24 FO standard \/ approval field<\/td><td>Confirm fibre construction and test documents<\/td><\/tr><tr><td>UL<\/td><td>TXG-D 24 FO approval field<\/td><td>Confirm the exact cable marking and UL scope<\/td><\/tr><tr><td>VDE 0295<\/td><td>Class-5 copper conductor<\/td><td>Verify conductor class in the released construction<\/td><\/tr><tr><td>VDE 0293<\/td><td>Core identification<\/td><td>Confirm colour \/ numeral \/ GN\/YE arrangement<\/td><\/tr><tr><td>DIN VDE 0298-4<\/td><td>Ampacity calculation basis<\/td><td>Current rating depends on installation, grouping and ambient<\/td><\/tr><tr><td>DIN VDE 0298 Part 3<\/td><td>Dynamic bending-radius reference<\/td><td>Use exact installation category and outer diameter<\/td><\/tr><tr><td>DIN EN 60811-404<\/td><td>Oil-resistance reference<\/td><td>Use the applicable compound and test report<\/td><\/tr><tr><td>IEC 60332-1<\/td><td>Flame-retardance reference<\/td><td>Confirm applicable edition and test configuration<\/td><\/tr><tr><td>ATEX \/ IECEx \/ VDE \/ CE \/ UKCA \/ EAC \/ Russian Fire Safety<\/td><td>Potential export approval routes<\/td><td>Scope depends on final product and destination<\/td><\/tr><\/tbody><\/table><\/div>\n <p class=\"note\"><strong>Public references used for context:<\/strong> <a href=\"https:\/\/www.conductix.de\/en\/de\/energy-transmission\/festoon-systems\/cables-festoon-systems\" target=\"_blank\" rel=\"nofollow noopener\">Conductix-Wampfler official festoon cable overview<\/a>; <a href=\"https:\/\/cdn.conductix.com\/cdn\/ff\/Nb11Q02Zq3h569tnLc8PGVRqPNb8ewbyS2hErKRP66Q\/1751966818\/public\/downloads\/KAT0130-0005-EN%20Conductix-Wampfler%20Cables%20for%20Festoon%20Systems%20Energy%20Guiding%20Chains%20and%20Others.pdf\" target=\"_blank\" rel=\"nofollow noopener\">Conductix-Wampfler cable catalogue PDF<\/a>; <a href=\"https:\/\/webstore.iec.ch\/en\/publication\/3542\" target=\"_blank\" rel=\"nofollow noopener\">IEC 60811-404 publication context<\/a>; <a href=\"https:\/\/webstore.iec.ch\/en\/publication\/80873\" target=\"_blank\" rel=\"nofollow noopener\">IEC 60332-1-2 publication context<\/a>.<\/p>\n <\/section>\n\n <section id=\"rfq\">\n <h2>RFQ checklist: information that prevents the wrong TXG cable<\/h2>\n <p>A strong RFQ gives the cable manufacturer enough information to check electrical loading, mechanical travel and approval scope together. For TXG-D, the media type must be fixed before commercial comparison.<\/p>\n <div class=\"grid\">\n <div class=\"box\"><h3>Machine duty<\/h3><ul><li>Container-crane trolley, process crane, stacker\/reclaimer or ship unloader<\/li><li>Horizontal \/ vertical travel and guide type<\/li><li>Travel speed, acceleration, braking and duty cycle<\/li><li>Travel length, trolley spacing and chain fill<\/li><li>End restraint, clip and termination arrangement<\/li><\/ul><\/div>\n <div class=\"box\"><h3>Electrical \/ media<\/h3><ul><li>TXG control, power or screened power<\/li><li>TXG-D paired copper, bus or optical fibre<\/li><li>Core count and cross-section<\/li><li>3-phase plus split-earth arrangement where required<\/li><li>Fibre type: 62.5\/125, 50\/125 or E9\/125<\/li><\/ul><\/div>\n <div class=\"box\"><h3>Environment<\/h3><ul><li>Flexing and fixed temperatures<\/li><li>Ozone, oil, UV, humidity, salt and atmospheric corrosion<\/li><li>Foundry heat, steel dust, coal dust or ship-unloader contamination<\/li><li>Cleaning chemistry and exposure duration<\/li><li>Black or orange sheath \/ marking requirement<\/li><\/ul><\/div>\n <div class=\"box\"><h3>Documents<\/h3><ul><li>Outer \u00d8 min\/max, weight and copper index<\/li><li>Permitted tensile load and safety factor<\/li><li>Dynamic radius and 125 mm FO requirement where applicable<\/li><li>Screen coverage object and termination method<\/li><li>DIN VDE \/ GOST-R \/ DIN VDE 0888 \/ UL \/ destination approval scope<\/li><\/ul><\/div>\n <\/div>\n <p class=\"formula\">RFQ line example\nTXG screened power \u00b7 3 \u00d7 35 + 3G6C \u00b7 U\u2080\/U 0.6\/1 kV \u00b7 131129-R3X35+3G6C#\ncontainer-crane festoon \u00b7 travel up to 240 m\/min \u00b7 outer \u00d8 29.3\u201332.3 mm\nCu 1547 kg\/km \u00b7 weight 2160 kg\/km \u00b7 permitted tensile load 1575 N\nminimum order quantity 500 m \u00b7 tinned-copper braid \u00b7 screen termination drawing attached\nradius basis: DIN VDE 0298 Part 3 \u00b7 destination: [state market]<\/p>\n <p>The example retains the supplied screened-power row. Feichun should confirm the final print, conductor identification, screen construction, outer dimensions, tests, certificates, accessories and project interface before production.<\/p>\n <div class=\"note\"><strong>Feichun manufacturing position.<\/strong> Feichun Cable can manufacture a functionally equivalent TXG \/ TXG-D solution around the required 0.6\/1 kV power and control schedule, bus or data construction, optical-fibre type, EPR insulation, synthetic-rubber sheath and screened three-phase plus split-earth configuration. The released product should have an independent Feichun drawing with its own dimensions, dynamic limits, tests, traceability and certification scope.<\/div>\n <\/section>\n\n <footer>\n <div class=\"wrap\">\n <div class=\"footer-grid\">\n <div><h2>Feichun Cable \u2014 engineering contact<\/h2><p>For TXG \/ TXG-D technical RFQs, replacement evaluation, construction drawings and certification scope:<\/p><div class=\"contact\"><div><strong>Email<\/strong><br><a href=\"mailto:Tech@feichuncables.com\">Tech@feichuncables.com<\/a><\/div><div><strong>Phone<\/strong><br>+86 13855123218<\/div><\/div><\/div>\n <div><h3>Document boundary<\/h3><p class=\"small\">This article is an engineering guide. Values marked as supplied are transcribed from the provided TXG \/ TXG-D record. Public links provide general context only. Final production data, tests, certificates, accessories and project requirements control the released product.<\/p><p class=\"small\">\u00a9 Feichun Cable \u00b7 TXG \/ TXG-D engineering reference \u00b7 05 August 2026<\/p><\/div>\n <\/div>\n <\/div>\n <\/footer>\n<\/main>\n<\/body>\n<\/html>\n","protected":false},"excerpt":{"rendered":"A practical engineering guide to a highly resilient round cable family for container-crane trolleys, process cranes, foundries, steel mills, stacker\/reclaimers, car dumpers, ship unloaders and transport carriers. TXG combines class-5 copper, EPR insulation, layered stranding and a wear-resistant synthetic-rubber sheath for continuous dynamic duty in severe atmospheric conditions.","protected":false},"author":1,"featured_media":25487,"comment_status":"open","ping_status":"open","sticky":false,"template":"","format":"standard","meta":{"csco_singular_sidebar":"left","csco_page_header_type":"title","csco_page_load_nextpost":"","footnotes":""},"categories":[66,464,56],"tags":[16,111,17],"class_list":["post-25486","post","type-post","status-publish","format-standard","has-post-thumbnail","category-common-problems-encountered-in-cable-applications","category-flexible-cables-with-high-bending-life-and-fatigue-resistance","category-reeling-cable","tag-din-vde-0250","tag-mining-cable","tag-reeling-cable","cs-entry"],"_links":{"self":[{"href":"https:\/\/feichuncables.com\/blog\/wp-json\/wp\/v2\/posts\/25486","targetHints":{"allow":["GET"]}}],"collection":[{"href":"https:\/\/feichuncables.com\/blog\/wp-json\/wp\/v2\/posts"}],"about":[{"href":"https:\/\/feichuncables.com\/blog\/wp-json\/wp\/v2\/types\/post"}],"author":[{"embeddable":true,"href":"https:\/\/feichuncables.com\/blog\/wp-json\/wp\/v2\/users\/1"}],"replies":[{"embeddable":true,"href":"https:\/\/feichuncables.com\/blog\/wp-json\/wp\/v2\/comments?post=25486"}],"version-history":[{"count":2,"href":"https:\/\/feichuncables.com\/blog\/wp-json\/wp\/v2\/posts\/25486\/revisions"}],"predecessor-version":[{"id":25491,"href":"https:\/\/feichuncables.com\/blog\/wp-json\/wp\/v2\/posts\/25486\/revisions\/25491"}],"wp:featuredmedia":[{"embeddable":true,"href":"https:\/\/feichuncables.com\/blog\/wp-json\/wp\/v2\/media\/25487"}],"wp:attachment":[{"href":"https:\/\/feichuncables.com\/blog\/wp-json\/wp\/v2\/media?parent=25486"}],"wp:term":[{"taxonomy":"category","embeddable":true,"href":"https:\/\/feichuncables.com\/blog\/wp-json\/wp\/v2\/categories?post=25486"},{"taxonomy":"post_tag","embeddable":true,"href":"https:\/\/feichuncables.com\/blog\/wp-json\/wp\/v2\/tags?post=25486"}],"curies":[{"name":"wp","href":"https:\/\/api.w.org\/{rel}","templated":true}]}}

{"id":25486,"date":"2026-08-05T17:30:09","date_gmt":"2026-08-05T09:30:09","guid":{"rendered":"https:\/\/feichuncables.com\/blog\/?p=25486"},"modified":"2026-08-05T17:30:15","modified_gmt":"2026-08-05T09:30:15","slug":"cable-txg-txg-d-neoprene-round-cable-for-heavy-duty-festoon-systems","status":"publish","type":"post","link":"https:\/\/feichuncables.com\/blog\/cable-txg-txg-d-neoprene-round-cable-for-heavy-duty-festoon-systems\/","title":{"rendered":"Cable TXG \/ TXG-D: Neoprene Round Cable for Heavy-Duty Festoon Systems"},"content":{"rendered":"\n