鏅�(sh铆)闁擄細2010-09-25 14:32:08渚�(l谩i)婧愶細xuliyuan
The PCI inductive angular positioning system currently represents the most efficient and most elegant sensor solution for rotary joints and slewing bearings due to its outstanding characteristics. No existing alternatives are capable of combining such essential characteristics in a single system. The non-contact system operates free of wear, does not require any additional mechanisms and produces valid absolute values without slipping, immediately after switching on. The sensor system is insusceptible to the adhesion of metal abrasion, not affected by bearing grease and insensitive to a variety of adverse ambient conditions, including heat, sand and dust on solar power plants in the desert, the aggressive saltwater environment of off-shore wind farms, or dirt, oil and grease on cranes, loading units or special vehicles. These properties form a solid foundation for many years of reliable operation and help reduce maintenance costs.
PCI闆绘劅寮忚瀹氫綅绯荤当(t菕ng)鍥犲叾鑷韩鐗归粸(di菐n)锛岀洰鍓嶆槸鍥炶綁(zhu菐n)杌告壙鏈€鏈夋晥鍜屾渶鍎�(y艒u)闆呯殑鏃嬭綁(zhu菐n)鎺ラ牠鍌虫劅鍣ㄨВ姹烘柟妗�銆傜洰鍓嶉倓娌�(m茅i)鏈変竴鍊�(g猫)鐛�(d煤)绔嬬郴绲�(t菕ng)鍙祼(ji茅)鍚堣垏鍏跺悓绛夌殑鍩烘湰鐗瑰緛鍜岃兘鍔�銆傞潪鎺ヨЦ寮忕殑绯荤当(t菕ng)淇濊瓑浜嗙劇(w煤)纾ㄦ悕閬�(y霉n)浣�锛屼笉闇€瑕佷换浣曢澶栫殑姗�(j墨)姊拌缃究鍙几鍑烘湁鏁堢殑绲曞皪(du矛)浣嶇疆鍊�锛屼俊铏�(h脿o)杓稿嚭鐒�(w煤)寤堕伈銆傝┎鍌虫劅鍣ㄧ郴绲�(t菕ng)涓嶆渻(hu矛)鍥犻噾灞(鎼嶈€屽嚭閷�(cu貌)锛屼笉鍙楄桓鎵挎补鑴傚奖闊跨祼(ji茅)鏋�锛岄仼鐢ㄤ簬澶氭ǎ鐨勬サ绔挵(hu谩n)澧冿紝鍖呮嫭鐔�锛屾矙瀛愬拰娌欐紶涓お闄�(y谩ng)鑳界櫦(f膩)闆诲粻閬彈鐨勭伆濉�锛屾捣涓婇ⅷ(f膿ng)寤犵殑楣芥按鐠�(hu谩n)澧�锛岃杓夐儴浠舵垨鐗圭ó杌婅紱浠ュ強璧烽噸姗�(j墨)涓婄殑姹″灑鍜屾补鑶�銆傞€欎簺鐗规€у舰鎴愪簡鍏跺骞村彲闈犻亱(y霉n)琛岀殑鍫�(ji膩n)瀵�(sh铆)鍩虹(ch菙)锛屽苟鏈夊姪浜庨檷浣庣董淇垚鏈�銆�
Inductive sensor systems are characterized by their exceptional robustness and resistance to dirt, oil, grease and humidity under difficult ambient conditions. The fact that even large solar and wind power plants as well as marine engineering and port systems technology can benefit from these advantages provides an interesting insight into how the inductive measuring system has developed. The system was designed for measuring angular positions on rotary joints and slewing bearings with diameters ranging from half a meter to approximately four meters.
闆绘劅寮忓偝鎰熷櫒绯荤当(t菕ng)鐨勭壒榛�(di菐n)鏄叾鍑鸿壊鐨勫爡(ji膩n)鍥烘€ц垏鎶垫姉姹″灑锛屾补锛屾补鑴傚拰婵曞害浠ュ強鎯″姡鐨勫伐浣滅挵(hu谩n)澧�銆備簨瀵�(sh铆)涓�锛屽彧鏈夊ぇ鍨嬬殑澶櫧(y谩ng)鑳藉拰棰�(f膿ng)鍔涚櫦(f膩)闆诲粻浠ュ強娴锋磱宸ョ▼鍜屾腐鍙g郴绲�(t菕ng)鎶€琛�(sh霉)鎵嶈兘鑳藉鍙楃泭浜庡畠鐨勯€欎簺鍎�(y艒u)鍕�(sh矛)锛屽緸鑰屼护闆绘劅寮忔脯(c猫)閲忕郴绲�(t菕ng)濡備綍闁�(k膩i)鐧�(f膩)鎴愪簡涓€鍊�(g猫)鏈夎叮鐨勮┍椤�銆傝┎绯荤当(t菕ng)鏄皥鐐烘脯(c猫)閲忔棆杞�(zhu菐n)鎺ラ牠鍜岃桓鎵跨殑瑙掍綅缃�锛岀洿寰戣寖鍦嶅緸0.5绫冲埌4绫充笉绛�銆�
The Position Coding System (PCI) is an inductive angular positioning system from Pepperl+Fuchs that is a further development of the PMI series manufactured by the same company. Numerous coil/oscillating circuit systems positioned closely beside one another use an intelligent microcontroller control interface to measure the position of metal target elements (Fig. 2) with a high degree of precision and form the basis of both series. Current systems are only capable of detecting one metal target object that moves along a linear or circular trajectory depending on the sensor type. When this method of measured value acquisition is employed, the size of the measurement range or the shaft diameter is restricted to the physical expansion of the sensor because the measurement target must always be located above the inductively sensitive coil/oscillating circuit. The inductive linear measuring systems that incorporate PMI technology currently achieve a maximum measurement range of 1000 mm, while the inductive PMI angular positioning system is suitable for maximum shaft diameters of 40 millimeters.
浣嶇疆绶ㄧ⒓绯荤当(t菕ng)锛圥CI锛夋槸鐢卞痉鍦�(gu贸)鍊嶅姞绂忕敱PMI绯诲垪鍩虹(ch菙)涓婄爺鐧�(f膩)鍑虹殑闆绘劅寮忚瀹氫綅绯荤当(t菕ng)銆傚鍊�(g猫)绶氬湀/鎸暕闆昏矾绯荤当(t菕ng)鐨勫畾绶婂瘑鎺掓斁锛岄€氶亷(gu貌)鏅鸿兘寰帶鍒跺櫒灏�(du矛)閲戝爆鐩(bi膩o)鐗╅€�(j矛n)琛岄珮绮惧害娓�(c猫)閲忥紙鍦�2锛夈€傜洰鍓嶇殑绯荤当(t菕ng)渚濇摎(j霉)鍌虫劅鍣ㄩ鍨嬪彧鑳芥帰娓�(c猫)娌跨洿绶氭垨鍦撳舰杌岃贰绉诲嫊(d貌ng)鐨勯噾灞洰妯�(bi膩o)鐗�銆傜暥(d膩ng)閲囧彇閫欏叐绋脯(c猫)閲忓€肩殑缍滃悎鏂规硶鏅�(sh铆)锛屾脯(c猫)閲忚寖鍦嶆垨杌哥殑鐩村緫鍍呴檺浜庡偝鎰熷櫒鐨勭墿鐞嗘摯(ku貌)寮�锛屽洜?y脿n)闂噛(c猫)閲忕殑鐩(bi膩o)锛屽繀闋堝绲備綅浜庢晱鎰熺殑闆绘劅绶氬湀/鎸暕闆昏矾鐨勪笂鏂�銆傞浕鎰熷紡绶氭€ф脯(c猫)閲忕郴绲�(t菕ng)閲囩敤浜哖MI鎶€琛�(sh霉)锛岀洰鍓嶆渶澶х殑娓�(c猫)閲忚寖鍦嶉仈(d谩)鍒�1000姣背锛岃€岄浕鎰熷紡PMI鐨勮搴﹀畾浣嶇郴绲�(t菕ng)鐐鸿桓鐩村緫40姣背鏈€鐐哄悎閬┿€�
The new PCI system is not affected by this restriction and is therefore suitable for application areas involving much larger spatial dimensions. The sensor now doubles up as a reading head which
measures the position of a moving code rail that allows a sensor head with multiple lengths. A row of steel pins serving is secured to the backing material on the code rail as targets. The pins are arranged on the code rail in pairs so that the reading head detects a minimum of one pair of targets at all times. In addition, each pair is characterized by a gap with a specific distance that appears only once along the entire code rail, e.g. 80 mm. The code rail and reading head are adapted perfectly to one another and the absolute position of each gap is stored in the software in the reading head.鏂板瀷PCI绯荤当(t菕ng)涓嶅彈闄愬埗锛岄仼鍚堝ぇ绌洪枔灏哄害鐨勬噳(y墨ng)鐢�銆傝┎鍌虫劅鍣ㄧ従(xi脿n)鏈夊叐閮ㄥ垎绲勬垚锛屼竴鍊�(g猫)绉诲嫊(d貌ng)绶ㄧ⒓甯�銆佷竴鍊�(g猫)娓�(c猫)閲忕法纰间綅缃殑璁€鍙栭牠锛屽緸鑰岃兘閫�(j矛n)琛屽绋暦(zh菐ng)搴︾殑娓�(c猫)閲�銆備竴鎺掗惖姊濆垎甯冨湪纰煎付涓婃矕鐣�(d膩ng)琚脯(c猫)鐨勭洰妯�(bi膩o)鐗�銆傞€欎簺閻垫鎴愬皪(du矛)瀹夌疆鍦ㄧ⒓甯朵笂锛屼娇浠g⒓鐨勮畝鍙栭牠鍦ㄤ换浣曟檪(sh铆)鍊欓兘鑳芥娓�(c猫)鍑鸿嚦灏戜竴灏�(du矛)鐩(bi膩o)鐗�銆傛澶�锛屾瘡涓€灏�(du矛)閻垫涔嬮枔淇濊瓑鐗瑰畾鐨勮窛闆紝鍦ㄦ暣鍊�(g猫)绶ㄧ⒓甯朵笂鍙嚭鐝�(xi脿n)涓€娆�锛屼緥濡�锛岀浉宸�80姣背銆傜法纰煎付鑸囪畝鍙栭牠褰兼閰嶅悎寰楀ぉ琛g劇(w煤)绺�锛屾瘡鍊�(g猫)绌洪殭鐨勭禃灏�(du矛)浣嶇疆瀛樺劜(ch菙)浜庤畝鍙栭牠鐨勮粺浠朵腑銆�
The sensor is therefore capable of calculating the current position of the code rail accurately at any time via a two-stage evaluation process. Initially the sensor detects the target pair gap above the reading head for purposes of general positioning, e.g. the gap L5 with distance of 80 mm, so that the system knows that the position of the target nearest to the reference is located at an absolute position of 680 mm, for example. Fine positioning is performed in a second step, whereby the remaining distance between the target nearest to the original position and the reference point on the reading head are added together. (Fig. 2: if the residual distance were 30 mm, the end result would be 680 mm + 30 mm = 710 mm.)
鍥犳锛岄€氶亷(gu貌)鍏╁€�(g猫)闅庢鐨勮⿻(p铆ng)浼�锛岃┎鍌虫劅鍣ㄥ彲闅ㄦ檪(sh铆)婧�(zh菙n)纰鸿▓(j矛)绠楃⒓甯剁殑绮剧⒑浣嶇疆銆傝捣鍒濓紝鍌虫劅鍣ㄦ娓�(c猫)鐩(bi膩o)鐗╂垚灏�(du矛)闁撹窛鐨勭洰鐨勬槸鐐轰簡瀹氫綅锛屼緥濡傦細L5绌洪殭鐨勮窛闆㈡槸80姣背锛岀郴绲�(t菕ng)鍥犳鐭ユ渶鎺ヨ繎鍙冭€冮粸(di菐n)鐨勭洰妯�(bi膩o)鐗╃殑瀵�(sh铆)闅涗綅缃槸鍦�680姣背鐨勭禃灏�(du矛)浣嶇疆涓�銆傜簿绱�(x矛)瀹氫綅鍦ㄧ浜屽€�(g猫)姝ラ鐨勫煼(zh铆)琛屼腑锛屽姞涓婂墿浣欑殑璺濋洟锛屽嵆璁€鍙栭牠鐨勫弮鑰冮粸(di菐n)鍜岃窛闆㈠弮鑰冮粸(di菐n)鏈€杩戠殑鐩(bi膩o)鐗╀箣闁撶殑璺濋洟锛堝湒2锛氬鏋滃墿浣欑殑璺濋洟鐐�30姣背锛屾渶绲傜殑绲�(ji茅)鏋滃皣鏄�680姣背+ 30姣背= 710姣背銆傦級
The Position Coding System is suitable for slewing bearings with diameters of 0.5...4 meters and allows direct, slip-free angle detection on large rotary joints. The absolute measuring principle make the current position available immediately after the coding system is restarted or switched on. Reference runs are not necessary after maintenance, faults or failure of the power supply. The measurement range extends from 1,500 to 12,000 millimeters, depending on the sensor version and the specified bearing diameters. With an absolute direction resolution of 卤1 mm along the circumference, the system can achieve angle resolutions between 0.24掳 and 0.03掳. Angle speeds of 3掳/sec to 12掳/sec are achieved at a signal refresh rate of 36 ms, depending on the bearing diameter and required measurement accuracy. The sensor is ideal for outdoor application due to the robust mechanical design and integral temperature compensation feature.
浣嶇疆绶ㄧ⒓绯荤当(t菕ng)閬╁悎0.5 ... 4绫崇洿寰戠殑杌告壙锛屽厑瑷辩洿鎺�銆佽嚜鐢辨粦绉�銆佸ぇ鍨嬫棆杞�(zhu菐n)绡€(ji茅)榛�(di菐n)鐨勮搴︽娓�(c猫)銆傜禃灏�(du矛)浣嶇疆娓�(c猫)閲忕殑鍘熺悊浠ょ法纰肩郴绲�(t菕ng)閲嶅暉鎴栭枊(k膩i)鍟熷悗鐨勭暥(d膩ng)鍓嶄綅缃珛鍗冲彲寰�銆傜董淇€佹晠闅滄垨闆诲姏渚涙噳(y墨ng)涓柗鍚庣劇(w煤)闇€鍙冭€冮亱(y霉n)琛�銆傛牴鎿�(j霉)鍌虫劅鍣ㄧ殑鐗堟湰鍜屾寚瀹氱殑杌告壙鐩村緫锛屾脯(c猫)閲忚寖鍦嶅緸1500鍒�12000姣背銆傝┎绯荤当(t菕ng)娌跨禃灏�(du矛)鍦撳懆鏂瑰悜绮惧害卤 1姣背锛屽彲浠ラ仈(d谩)鍒�0.24 掳鍜�0.03掳鐨勮鍒嗚鲸鐜囩簿搴�銆傛牴鎿�(j霉)杌告壙鐨勭洿寰戝拰娓�(c猫)閲忕簿搴﹁姹�锛�3 掳 /绉掕嚦12 掳 /绉掔殑閫熷害瑙掍笅鍙互瀵�(sh铆)鐝�(xi脿n)姣�36姣涓€娆$殑淇¤櫉(h脿o)鍒锋柊鐜�銆傝┎鍌虫劅鍣ㄥ叿鏈夊爡(ji膩n)鍥虹殑姗�(j墨)姊拌ō(sh猫)瑷�(j矛)鍜屾暣楂旀韩搴﹁(b菙)鍎熷姛鑳�锛屾槸鎴跺鎳�(y墨ng)鐢ㄧ殑鐞嗘兂閬告搰銆�
The code rail can be mounted either directly on the bearing or on the bearing flange. The maximum read distance of 5mm gives the measuring system a high guide tolerance. Compared to magnetic systems that operate with air gap sizes of only 0.1...1.5 millimeters, this read distance can be considered more than adequate. Problems arising from abrasive effects caused by dirt and sand or even metallic friction between targets and the reading head can therefore be prevented depending on the system. The system can easily compensate for corresponding changes in distance caused by mechanical imbalances during operation (Fig. 3).
瑭茬法纰煎付鍙互鐩存帴瀹夎鍦ㄨ桓鎵挎垨杌告壙娉曡槶涓�銆傝畝鍙栫殑鏈€澶ц窛闆㈢偤5mm浠ゆ脯(c猫)閲忕郴绲�(t菕ng)鍏峰倷浜嗚純楂樼殑瀹归尟(cu貌)鎬�銆傝垏姘i殭璺濋洟鍍�0.1 ...1.5姣背鐨勭鎬х郴绲�(t菕ng)鐩告瘮锛岄€欏€�(g猫)璁€鍙栬窛闆㈠凡缍�(j墨ng)缍界督鏈変綑銆傜敱浜庣洰妯�(bi膩o)鐗╁拰璁€鍙栭牠涔嬮枔鐨勭伆濉�銆佹矙瀛愭垨閲戝爆鎽╂摝纾ㄦ悕寮曡捣鐨勫晱(w猫n)椤�锛屽彲浠ラ€氶亷(gu貌)绯荤当(t菕ng)瑷�(sh猫)缃€屾湁鏁堥槻姝�銆傝┎绯荤当(t菕ng)鍙互杓曟澗鍦板綄瑁�(b菙)鎿嶄綔閬�(gu貌)绋嬩腑鐨勬(j墨)姊颁笉骞宠 锛堝湒3锛夊紩璧风殑璺濋洟璁婂寲銆�
The inductive sensor system is suitable for applications in the renewable energy, marine engineering and port system equipment and commercial or special vehicle construction industries. In solar power plants, solar trackers enable the cell panels to follow the path of the sun. The described measuring system for controlling the azimuth angle in solar tracker applications has already been used with great success. In solar thermal power plants with a concentration of direct solar radiation, countless parabolic mirror systems must be continuously moved to direct the sunlight accurately towards the central absorber. Nowadays, solar thermal plants are becoming larger and larger and are focusing more and more on maximizing energy yield and efficiency. Reliable sensor systems are making an important contribution to the overall cost-effectiveness of these plants.
闆绘劅鍌虫劅鍣ㄧ郴绲�(t菕ng)閬╃敤浜庡彲鍐嶇敓鑳芥簮锛屾捣娲嬪伐绋嬪拰娓彛绯荤当(t菕ng)瑷�(sh猫)鍌欏拰鍟嗘キ(y猫)寤虹瓚绛夎妤�(y猫)鎴栫壒娈婅粖杓涚殑鎳�(y墨ng)鐢�銆傚湪澶櫧(y谩ng)鑳介浕绔�锛屽お闄�(y谩ng)鑳借窡韫よ畵澶櫧(y谩ng)鑳芥澘鏅�(sh铆)鏅�(sh铆)杩借工澶櫧(y谩ng)璺緫銆傛垜鍊戠殑娓�(c猫)閲忕郴绲�(t菕ng)鎴愬姛鎳�(y墨ng)鐢ㄥ湪鎺у埗澶櫧(y谩ng)鐨勬柟浣嶈璺熻工绯荤当(t菕ng)銆傚湪澶櫧(y谩ng)鐔辫兘寤�锛屽お闄�(y谩ng)鍏夎兘鐨勮蓟灏勯渶瑕侀泦涓紝鐒�(w煤)鏁�(sh霉)閺¢潰绯荤当(t菕ng)灏卞繀闋堜笉鏂疯綁(zhu菐n)绉�銆佹簴(zh菙n)纰哄湴鍚告敹闄�(y谩ng)鍏�锛岀洿鎺ラ泦涓埌涓ぎ鍚告敹鍣�銆傚浠�锛屽お闄�(y谩ng)鑳界啽闆诲粻鐨勮(gu墨)妯℃鍦ㄨ畩寰楄秺渚�(l谩i)瓒婂ぇ锛屼互鑳芥簮鐢�(ch菐n)閲忕殑鏈€澶у寲鍜屾晥鐜囩偤閲嶉粸(di菐n)?锛熺吔搴疯啱闉茶椋ㄥ埌y(t菕ng)姝g偤宸ュ粻鐨勬暣楂旀垚鏈晥鐩婂仛鍑洪噸瑕佽并鐛�(xi脿n)銆�
The PCI inductive angular positioning system can also be used for several different applications in wind power plants. First of all, for measuring the current angular position on the large rotary joint that supports the entire turbine and can reach diameters of up to four meters. The system can also be used on the rotor blades, whose pitch angle can also be modified. Modifications to the pitch angle can influence the incident flow in the required way when the rotor starts or during active braking sequences. The bearings on the rotor blades can still reach diameters of about one meter.
PCI闆绘劅寮忚瀹氫綅绯荤当(t菕ng)涔熷彲鐢ㄤ簬棰�(f膿ng)鍔涚櫦(f膩)闆诲粻鐨勫咕鍊�(g猫)涓嶅悓鐨勬噳(y墨ng)鐢�銆傞鍏堬紝娓�(c猫)閲忔敮鎸佹暣鍊�(g猫)棰�(f膿ng)姗�(j墨)鐨勫ぇ鍨嬫棆杞�(zhu菐n)閮ㄤ欢鐨勭暥(d膩ng)鍓嶈搴︿綅缃�锛屽彲浠ラ仈(d谩)鍒�4绫崇洿寰戠殑瑙掑害浣嶇疆銆傝┎绯荤当(t菕ng)涔熷彲鐢ㄤ簬棰�(f膿ng)姗�(j墨)鐨勮憠鐗囷紝鎺у埗鍌炬枩瑙掑害銆傚湪寮曟搸鍟熷嫊(d貌ng)鎴栧埗鍕�(d貌ng)閬�(gu貌)绋嬩腑锛屽偩瑙掔殑淇敼鑳藉鎸夐渶姹傚奖闊挎埃娴�銆傝綁(zhu菐n)瀛愮殑杌告壙浠嶇劧鍙互閬�(d谩)鍒扮磩涓€绫崇洿寰�銆�
Other important application areas include the commercial vehicle, special vehicle, marine engineering and port systems technology sectors. Various load and slewing cranes, lifting and working platforms, loading units, rotary fire service ladders etc. form the backbone of operational logistics processes as well as other activities. The plants are permanently exposed to moisture, dirt, dust, oil and grease and failures cost the operating company a great deal of money.
鍏朵粬閲嶈鐨勬噳(y墨ng)鐢ㄩ牁(l菒ng)鍩熷寘鎷晢鐢ㄨ粖杓涳紝鐗圭ó杌婅紱锛屾捣娲嬪伐绋嬪拰娓彛绯荤当(t菕ng)绉戞妧琛屾キ(y猫)锛屼笉鍚岀殑璨�(f霉)杓夊拰璧烽噸姗�(j墨)锛屽崌闄嶆(j墨)鍜屽伐浣滃钩鑷�(t谩i)锛岃杓夐儴浠讹紝鏃嬭綁(zhu菐n)鐨勬秷闃蹭簯姊瓑妲�(g貌u)鎴愪簡鐗╂祦鎿嶄綔閬�(gu貌)绋嬩互鍙婂叾浠栨椿鍕�(d貌ng)鐨勪腑娴佺牓鏌�銆傞€欎簺宸ュ粻闀�(zh菐ng)骞寸疮鏈堝湴鏆撮湶鍦ㄦ疆婵�锛屾薄鍨紝鐏板〉锛屾补鑴傚拰鏁呴殰鐨勭挵(hu谩n)澧冧腑锛岀郸鍏徃閬�(y霉n)鐕�(y铆ng)閫犳垚浜嗗ぇ閲忕殑璩囬噾鎼嶅け銆�
With angle speeds of up to 12掳/sec, the dynamics of the sensor system are adapted to the target application areas of industrial and heavy machine construction. An RS232 interface is fitted as standard to transfer the measured values, although the standards used in the relevant applications and major projects depend heavily on the respective industry and the technical control environment. The modular structure of the angular positioning system enables both mechanical adaptation to the specific customer application as well as modification of the interface to match the corresponding control technology.
闅ㄨ憲楂橀仈(d谩)12 掳 /绉掔殑瑙掗€熷害锛屽偝鎰熷櫒绯荤当(t菕ng)鐨勫嫊(d貌ng)鍔涘(xu茅)閬╃敤浜庡伐妤�(y猫)鍜岄噸鍨嬫(j墨)姊板缓瑷�(sh猫)鐨勭洰妯�(bi膩o)鎳�(y墨ng)鐢ㄩ牁(l菒ng)鍩�銆傞洊鐒舵湁闂�(gu膩n)鐨勬(bi膩o)婧�(zh菙n)鍜岄噸澶ч爡(xi脿ng)鐩殑鎳�(y墨ng)鐢ㄥ緢澶х▼搴︿笂鍙栨焙浜庡悇鑷殑琛屾キ(y猫)鍜屾妧琛�(sh霉)鐨勬帶鍒剁挵(hu谩n)澧�锛屼竴鍊�(g猫)RS232鎺ュ彛閬╁悎鍌宠几妯�(bi膩o)婧�(zh菙n)瑁濆倷鐨勬脯(c猫)閲忓€�銆傝┎瑙掑畾浣嶇郴绲�(t菕ng)鐨勬ā濉婂寲绲�(ji茅)妲�(g貌u)锛屽厑瑷辨寜鐓х壒瀹氬鎴剁殑鎳�(y墨ng)鐢ㄩ€�(j矛n)琛屾(j墨)姊拌(di脿o)鏁村拰鐣岄潰鐨勪慨鏀�锛屼互閰嶅悎鐩告噳(y墨ng)鐨勬帶鍒舵妧琛�(sh霉)銆�
From a cost perspective, the inductive sensor system is comparable to a magnetic system, only without disadvantages such as the small, sensitive air gap, residual magnetism that changes with the temperature and sensitivity to magnetic interference fields and metallic abrasion. The new sensor offers cost advantages over rotary encoder solutions because the absolute rotary encoder and the cost-intensive installation of the mechanical encoder coupling using components such as transmission gears or a friction wheel are no longer required. Friction wheels are also a potential source of failure due to their susceptibility to wear.
Fig. 1: The PCI Position Coding System facilitates the non-contact detection of rotation angles on slewing bearings used in renewable energy systems, marine engineering and port systems technology as well as commercial and special vehicle construction.
Fig. 2: Functional principle 鈥� The system of coils does not require permanent magnets to measure the absolute rotation angle. The distance traveled is measured with reference to the positions of the steel pins along a code rail, which are stored in the sensor.
Fig. 3: The large reading distance of 5 mm safeguards against failures caused by dirt and guarantees sufficient tolerance to imbalances or concentricity errors.
妯�(bi膩o)绨斤細
涓湅(gu贸)鍌冲嫊(d貌ng)缍�(w菐ng)鐗堟瑠(qu谩n)鑸囧厤璨�(z茅)鑱叉槑锛氬嚒鏈恫(w菐ng)娉ㄦ槑[渚�(l谩i)婧愶細涓湅(gu贸)鍌冲嫊(d貌ng)缍�(w菐ng)]鐨勬墍鏈夋枃瀛�銆佸湒鐗�銆侀煶瑕栧拰瑕栭牷鏂囦欢锛岀増娆�(qu谩n)鍧囩偤涓湅(gu贸)鍌冲嫊(d貌ng)缍�(w菐ng)(www.wangxinlc.cn)鐛�(d煤)瀹舵墍鏈夈€傚闇€杞�(zhu菐n)杓夎珛(q菒ng)鑸�0755-82949061鑱�(li谩n)绯�銆備换浣曞獟楂斻€佺恫(w菐ng)绔欐垨鍊�(g猫)浜鸿綁(zhu菐n)杓変娇鐢ㄦ檪(sh铆)闋堟敞鏄庝締(l谩i)婧愨€滀腑鍦�(gu贸)鍌冲嫊(d貌ng)缍�(w菐ng)鈥�锛岄仌鍙嶈€呮湰缍�(w菐ng)灏囪拷绌跺叾娉曞緥璨�(z茅)浠汇€�
鏈恫(w菐ng)杞�(zhu菐n)杓夊苟娉ㄦ槑鍏朵粬渚�(l谩i)婧愮殑绋夸欢锛屽潎渚�(l谩i)鑷簰鑱�(li谩n)缍�(w菐ng)鎴栨キ(y猫)鍏�(n猫i)鎶曠ǹ浜哄+锛岀増娆�(qu谩n)灞簬鍘熺増娆�(qu谩n)浜恒€傝綁(zhu菐n)杓夎珛(q菒ng)淇濈暀绋夸欢渚�(l谩i)婧愬強浣滆€�锛岀姝㈡搮鑷鏀癸紝閬曡€呰嚜璨�(f霉)鐗堟瑠(qu谩n)娉曞緥璨�(z茅)浠�銆�
鐢�(ch菐n)鍝佹柊鑱�
鏇村>缍畯鐜荤拑鍔犲伐涓績锛氱(閭�銆佹媼鍏�銆侀墕瀛�锛�...
2025-07-08
鏉挎潗娴不(f猫i)鎴愭鍙�锛熺董瀹忔櫤鐩畵浣欐枡鈥滆畩寤�...
2025-06-09
绠″垏楂樻晥鍔犲伐绉樼睄锛氬皬绠″鏂�+Tekla鎻掍欢...
2025-05-19
B1绯诲垪鑴堟矕鍨嬩己鏈嶅伐钘濇鍔熻兘涓婄窔锛岃畵姗�(j墨)...
2025-04-30
鎺ㄨ枽灏堥
鏇村>