Abstract: A system for monitoring conveyor belts is disclosed. The system includes a generator array, a sensor array and circuitry. The generator array is configured to apply a magnetic field to a conveyor belt. The sensor array is configured to measure a plurality of magnetic responses. The circuitry is configured to determine the source or cause of the observed steel cord damage based on the measured plurality of magnetic responses.

Abstract: A belt (1) with a first belt end (11) and a second belt end (12), both belt ends (11, 12) being connected together. The first belt end (11) has at least one first segment (13) and a second segment (14), and the second belt end (12) has at least one first segment (15) and a second segment (16). The first segment (13) of the first belt end (11) is connected to the first segment (15) of the second belt end (12) at least one connection element (17), and the second segment (14) of the first belt end (11) is connected to the second segment (16) of the second belt end (12) at least one other connection element (17). The first segment (13) of the first belt end (11) is offset in the longitudinal direction (X) in some sections relative to the second segment (14) of the first belt end (11), and the first segment (15) of the second belt end (12) is offset in the longitudinal direction (X) in some sections relative to the second segment (16) of the second belt end (12).

Abstract: A measurement system includes an imaging device, a memory device, an interface and circuitry. The imaging device is configured to obtain a device image a conveyor belt system. The image device is configured to obtain a reference image of a reference point or reference measurement. The reference image can also be the device image. The memory device is configured to store the device image. The interface is configured to facilitate selection of points for a device/part to be measured. The circuitry comprises one or more processors configured to determine a reference measurement for the reference dimension based on the reference image via the interface; determine one or more device measurements based on the device image and the reference measurement; and calculate a plurality of device parameters based on the determined one or more device measurements.

Abstract: A pipe belt system comprising one or more thermoplastic elastomeric (TPE) layers and a reinforcement layer is disclosed. The one or more thermoplastic elastomeric (TPE) layers have a first modulus of elasticity and a first stiffness and formed across a width of the belt. The reinforcement layer is formed proximate to the one or more TPE layers and has a second modulus of elasticity and a second stiffness. The pipe belt is configured to have an open state where the belt is substantially flat and a closed state where the belt is formed having a circular shape and partially overlaps itself. The pipe belt has a combined modulus of elasticity based on the first modulus of elasticity and the second modulus of elasticity and a combined stiffness based on the first stiffness and the second stiffness.

Abstract: Heavy duty conveyor belts having excellent resistance to high temperatures. These conveyor belts can be repeatedly exposed to temperatures of greater than 150° C. or even greater than 200° C. without compromising the strength or reliability of the belt while providing a greatly extended service life. The conveyor belts generally include a reinforcement layer, a carry cover layer disposed above the reinforcement layer, a pulley cover layer disposed beneath the reinforcement layer. The carry cover layer contains a high temperature resistant compound based upon a peroxide curable rubber mixture of ethylene propylene copolymer with ethylene based polyolefin elastomer, and in some aspects, further includes a combination of diphenylamine (DPA), zinc 2-mercaptomethyl benzimidazole (ZMTI), and 2,2,4-trimethyl-1,2-dihydroquinoline (TMQ), and additionally, any other suitable additives.

Abstract: An impact absorbing conveyor belt that includes an impact absorption layer, a first fabric layer and a top cover layer. The impact absorption layer has a first side. The impact absorption layer has a durometer. When the conveyor belt is in use, the first side of the impact absorption layer is oriented toward a surface of the conveyor belt on which an object being conveyed is placed. The top cover layer has a durometer that is greater than the durometer of the impact absorption layer. The first fabric layer and the top cover layer are both positioned on the first side of the impact absorption layer.

Abstract: A conveyor belt monitoring system includes a field generation array, a sensor array and circuitry. The field generation array is configured to generate a magnetic field. The sensor array is positioned a conveyor distance downstream from the field generation array and configured to measure a remaining magnetic field of a conveyor belt, the sensor array may include a series of sensors. The circuitry is configured to determine conveyor belt characteristics of the conveyor belt based on the measured remaining magnetic field.

Abstract: A pipe belt system comprising one or more thermoplastic elastomeric (TPE) layers and a reinforcement layer is disclosed. The one or more thermoplastic elastomeric (TPE) layers have a first modulus of elasticity and a first stiffness and formed across a width of the belt. The reinforcement layer is formed proximate to the one or more TPE layers and has a second modulus of elasticity and a second stiffness. The pipe belt is configured to have an open state where the belt is substantially flat and a closed state where the belt is formed having a circular shape and partially overlaps itself. The pipe belt has a combined modulus of elasticity based on the first modulus of elasticity and the second modulus of elasticity and a combined stiffness based on the first stiffness and the second stiffness.

Abstract: Heavy duty conveyor belts having excellent resistance to high temperatures. These conveyor belts can be repeatedly exposed to temperatures of greater than 150° C. or even greater than 200° C. without compromising the strength or reliability of the belt while providing a greatly extended service life. The conveyor belts generally include a reinforcement layer, a carry cover layer disposed above the reinforcement layer, a pulley cover layer disposed beneath the reinforcement layer. The carry cover layer contains a high temperature resistant compound based upon a peroxide curable rubber mixture of ethylene propylene copolymer with ethylene based polyolefin elastomer, and in some aspects, further includes a combination of diphenylamine (DPA), zinc 2-mercaptomethyl benzimidazole (ZMTI), and 2,2,4-trimethyl-1,2-dihydroquinoline (TMQ), and additionally, any other suitable additives.

Abstract: A tube conveyor including a tube and a conveyor belt. The tube has a bore extending therethrough. The conveyor belt is movable through the tube bore. The conveyor belt includes a base and at least one first longitudinal cog. The base has a first edge and a surface. The at least one first longitudinal cog extends from the base surface. The at least one first longitudinal cog is oriented substantially parallel to the first edge.

Abstract: The present invention relates to a method for inspecting a facility (1), wherein the method comprises at least the automatically executed steps of: capturing (100a) optical data from at least one facility part (12, 13) of the facility (19), capturing (100b) acoustic data from at least the same facility part (12, 13) of the facility (19), and jointly evaluating (200) the captured optical data and the captured acoustic data.

Abstract: The present invention relates to a belt (1) or a belt segment (1), having a plurality of reinforcement members (11) which run in the longitudinal direction (X) and are arranged parallel to one another and which are embedded at least substantially into an elastomer main body (10), and having at least one connection element (2) which is arranged on an open end (1a) of the belt (1) or of the belt segment (1), wherein the ends of the reinforcement members (11) are each at least substantially exposed by and/or left free of the elastomer main body (10), wherein the ends of the reinforcement members (11) are each connected in a force-fitting manner to at least one clamping element (12), and wherein the clamping elements (12) are held in a form-fitting manner in a connection section (A) by the connection element (2) at least in the longitudinal direction (X).

Abstract: A conveyor belt with flow control cleats that includes belting, first cleats and second cleats. The belting has a first side edge and a second side edge. The first cleats extend from the belting. The first cleats are oriented at an angle with respect to the first side edge of between about 30 degrees and about 60 degrees. The second cleats extend from the belting. The second cleats are oriented at an angle with respect to the second side edge of between about 30 degrees and about 60 degrees. The first cleats and the second cleats both include a first long cleat section, a second long cleat section, a short cleat section and a third long cleat section. The short cleat section has a length that is shorter than a length of the first long cleat section. The second long cleat section is between the first long cleat section and the short cleat section. The short cleat section is between the second long cleat section and the third long cleat section.

Abstract: Methods of manufacturing a conveyor belt (126) include applying a rubber composition (114) to a first side of fabric reinforcement (112) and scattering productive thermoplastic elastomer pellets (106) onto a second side of the fabric reinforcement to produce an uncured belt structure (120). The uncured belt structure (120) is continuous fed into a double belt press (116) to press the productive thermoplastic elastomer pellets (106) together with the fabric reinforcement (112) to produce an uncured belt (128). Uncured belt (128) is then heated in the double belt press (116) to a temperature of at least 300° F. and maintained in the double belt press (116) under a pressure of at least 12 psi and a temperature of at least 300° C. for a residence time of at least 20 minutes to produce a cured conveyor belt (130), which is continuously withdrawn from the double belt press (116).

Abstract: Conveyor belts having a reinforcement layer, a carry cover layer above the reinforcement layer, and a pulley cover layer disposed beneath the reinforcement layer, where the carry cover layer includes least one hydrogenated nitrile butadiene rubber (HNBR) material. The HNBR material(s) may have a percentage of hydrogenation of from about 90% to about 96%, from about 92% to about 95%, or even about 94%. The carry cover layer may be from about 4 mm to about 6 mm thick, or even from about 4 mm to about 5 mm thick. In some cases, the reinforcement layer includes a rubber matrix, which may be formed of a nitrile rubber (NBR), or mixture of nitrile NBR and natural rubber blended in a NBR:NR weight ratio of from 3:1 to 9:1. In some aspects, the reinforcement layer includes a plurality of reinforcement plies embedded in the rubber matrix.

Abstract: A measurement system includes an imaging device, a memory device, an interface and circuitry. The imaging device is configured to obtain a device image a conveyor belt system. The image device is configured to obtain a reference image of a reference point or reference measurement. The reference image can also be the device image. The memory device is configured to store the device image. The interface is configured to facilitate selection of points for a device/part to be measured. The circuitry comprises one or more processors configured to determine a reference measurement for the reference dimension based on the reference image via the interface; determine one or more device measurements based on the device image and the reference measurement; and calculate a plurality of device parameters based on the determined one or more device measurements.

Abstract: One general aspect includes a method for generating an encapsulated belt containment system. The method also includes cutting a belt and removing rubber material from a portion of the belt to generate exposed belt end. The method also includes removing excess material from exposed cables of the exposed belt end. The method also includes organizing exposed cables into a plurality of cable groups and secure each group. The method also includes inserting the plurality of cable groups into a containment bag.

Abstract: The present invention relates to a hook connector arrangement (1) for a conveyor belt (3) having a plurality of hook connectors (10), which are designed to hold between them an open end of the conveyor belt (3) at least by force fit, wherein the hook connectors (10) are connected to one another on the inside in a transverse direction (Y) by means of a connecting element (19). The hook connector arrangement (1) is characterized in that at least one hook connector (10) comprises on the inside a clamping element (2) which is arranged opposite the connecting element (19).

Abstract: A conveyor belt monitoring system (100) includes a field generation array (106), a sensor array (104) and circuitry (408). The field generation array (106) is configured to generate a magnetic field. The sensor array (104) is positioned a convey or distance downstream from the field generation array and configured to measure a remaining magnetic field of a conveyor belt (102), the sensor array may include a series of sensors. The circuitry (408) is configured to determine conveyor belt characteristics of the conveyor belt based on the measured remaining magnetic field.

Abstract: A system for determining volume and flow characteristics for material on a conveyer belt is disclosed. The system includes an emitter, a sensor, and circuitry. The emitter is configured to generate radiation and direct the radiation toward a conveyer belt according to a field of view. The sensor is configured to measure reflected radiation from the conveyor belt and based on the generated radiation at a high framerate of about 20 to 30 Hertz and a high resolution of greater than about 4000 pixels and generate time of flight measurements. The circuitry is configured to generate time of flight measurements, determine three dimensional volume characteristics and flow characteristics for material conveyed by the conveyor belt using light detection and ranging based on the measured reflected radiation.