Build a passenger-car wheel-weight range from recorded balancing jobs, then approve each proposed SKU on the actual wheel before placing a repeat order. The useful record is not just a total number of grams: it identifies the vehicle and wheel, the balancer\u2019s correction at each plane, the allowed attachment location, and the product format that can deliver that correction.<\/p>\n
This page is limited to passenger-car range planning and sample acceptance. Use the wheel-weight range and format overview<\/a> for the wider category, the wheel-weight unit conversions and nominal increments<\/a> for grams and ounces, and the rim-flange application chart<\/a> when a clip-on sample must match a flange.<\/p>\n A useful passenger-car range covers the correction values workshops actually see and the wheel locations where those values can be installed. It should not be copied from a generic \u201cpassenger-car\u201d weight list: two passenger cars can use different wheel materials, flange profiles, inner-barrel clearances, and approved balancing planes.<\/p>\n Start with a sample of recent balancing tickets or machine records from the shops the range is meant to serve. For each job, capture:<\/p>\n Then group the jobs by wheel and attachment conditions before grouping by weight. A 25 g correction on a suitable steel-wheel flange and a 25 g correction on an adhesive location are the same mass but not the same stock line. The first range decision is therefore \u201cwhich passenger-car wheel applications recur?\u201d; the increment decision comes after that.<\/p>\n Separate frequent corrections from edge cases. The frequent values should be easy to build from stocked increments without awkward combinations. Rare high corrections should remain visible in the sample and replenishment plan, but one unusual job should not automatically become a deep-stock SKU. If the machine output is in ounces, retain the original record and use the size chart<\/a> for conversion rather than rounding the value silently.<\/p>\n A published Hometyre service report describes a Mercedes S-Class that still vibrated after another garage had balanced its wheels. The technician found no visible wheel buckle, but the balancing machine showed 35 g, 40 g, 30 g, and 70 g out of balance across the four wheels. After correcting all four and road-testing the car, the vibration was gone.1<\/a><\/p>\n Those readings give a real starting point for a passenger-car sample request. If the shop wants to test a 5 g increment, the four recorded values require 7, 8, 6, and 14 increments respectively: 35 increments in total, or 175 g across the four recorded corrections. That gives the buyer a repeatable way to test how each format builds the recorded values and covers the upper end of the range without awkward combinations.<\/p>\n For range planning, the useful pattern is four passenger-car corrections from 30 g to 70 g. Treat 30, 35, 40, and 70 g as sample test points, then compare the formats against the correction values and mounting methods that recur in the shop\u2019s own service records.1<\/a><\/p>\n At Yirox, we\u2019d turn a service pattern like this into a focused sample comparison. For a 5 g adhesive increment, the four readings map to 7, 8, 6, and 14 units, making the YX-WW-055 5 g roll<\/a> a practical first sample for shops using adhesive weights. We\u2019d compare the YX-WW-061 pre-segmented strip<\/a> where installers prefer ready-made sections, and include the YX-WW-072 zinc clip-on<\/a> in a steel-wheel fit trial. The sample card records each format against the buyer\u2019s wheel, correction value, clearance, and final balance reading; repeated service patterns then guide the stocking range.<\/p>\n For a workshop using adhesive weights, the YX-WW-055 5 g roll<\/a> makes the four recorded values easy to test in 5 g steps: 35, 40, 30, and 70 g require 7, 8, 6, and 14 increments respectively. Use the shop\u2019s monthly wheel volume and the agreed roll or pack quantity to turn that test into a repeat-order estimate.2<\/a><\/p>\n The YX-WW-061 steel adhesive strip<\/a> offers a pre-segmented alternative for installers who want ready-made sections. Its listed notation, \u201c(5+10 g) \u00d7 4,\u201d gives a nominal 60 g per strip.3<\/a> The 30\u201340 g readings sit within that nominal total, while the 70 g reading is a useful upper-range test: compare the strip layout and any approved combination against the shop\u2019s actual correction method.<\/p>\n For steel-wheel service, the YX-WW-072 zinc clip-on<\/a> adds a coated zinc clip format to the comparison. Yirox lists it for steel-wheel applications.4<\/a> Include a representative steel rim in the trial, compare the clip format with the correction sizes the shop uses most, and record fit, retention, and clearance on the sample card.<\/p>\n These three models give buyers a clear starting comparison across adhesive rolls, pre-segmented strips, and steel-wheel clips. Choose the first samples around the shop\u2019s wheel mix and balancing records, then use the sample card to document the result for each application.<\/p>\nTable of Contents<\/h2>\n
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What should a passenger-car wheel-weight range cover?<\/h2>\n
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How do real balancing records turn into a usable sample range?<\/h2>\n
Which Yirox passenger-car models should you sample first?<\/h2>\n