393 results about "Multicore cable" patented technology

The present invention relates to an electric saw (1) being powered by an external power supply (200) through a multicore cable (6). The multicore cable (6) includes electrical wires (24, 25, 27) for supplying power to the motors (5, 12, 13) of the electric saw (1) and communication wires (26) for data communication between the electric saw (1) and the power supply (200). Two motors (12, 13) of the electric saw are three phase permanent magnet motors (12, 13), with an outer rotor (31) and an inner stator (30). Each of the two motors (12, 13) has three Hall Effect sensors (H1, H2, H3) located around the outer rotor (31).

An electrode belt is provided for carrying out electrodiagnostic procedures on the human body. The electrode belt includes a belt (2), which is formed at least partially of an elastic material and surrounds the body of a test subject. A plurality of electrodes, are mechanically connected to the belt and are in flat contact with the body of the test subject. At least one contact passes from the electrodes through the belt (2) and is connected to a connection element (11), which is connected to a lead each of a multicore cable (6). Such an electrode belt offers marked advantages in terms of handling along with increased safety from movement artifacts.

A modular submersible video viewing system. The system includes a viewing monitor, multi-conductor cable and camera that store at a portable housing and deploy for underwater viewing. The camera can be submersed for stationary viewing, towed from a watercraft or manipulated with an operator pole. The camera can be secured with clips or bottom support plates in various orientations or be secured to a swivel coupler and steering guide and / or pole. A rudder, ballast weight (with or without a keel), lens' sunshield, lights and / or lenses and filters are optionally mountable to the camera. In one portable assembly, a cable spool mounts to a carry case that stores the system components. In another portable assembly, the viewing monitor, battery and attendant control circuitry are mounted in a monitor housing having an integral sunshield. A handle and a pair of cable wrap arms contain the cable. A recess at the monitor housing supports the camera. The housing can be supported on the floor or from a wall bracket to permit viewing through the sunshield. In another portable assembly, the sunshield can be detached from the housing.

An endoscope comprises an image sensor incorporated in a distal portion of an insert section to be inserted in a body cavity, a heat dissipation substrate, a multi-core cable, and a connection member. The heat dissipation substrate is attached to the back of a circuit board that supports the image sensor. The multi-core cable has signal lines and a second shield member. The signal lines, each covered with a first shield member, transmit signals to / from the image sensor. The second shield member covers and holds the signal lines together. The second shield member has an electrically conductive layer. The connection member transmits heat, generated in the image sensor, from the heat dissipation substrate to the second shield member.

The present disclosure relates to connector assemblies for use with multi-conductor connection cables. More specifically, the present disclosure relates to a flexible angle configurable boot assembly for use with a multi-conductor cable where the angle configurable boot defines an area for receiving the multi-conductor cable for positioning the cable at a known angle and / or orientation with respect to the flexible angle configurable boot in at least one location, and where the angle configurable boot may be coupled to the cable connector in one or a plurality of alternate orientations. The present disclosure also relates to a process for installing such a flexible angle configurable boot assembly.

The object of the invention is to provide an extra-fine copper alloy wire, an extra-fine copper alloy twisted wire, an extra-fine insulated wire, a coaxial cable having high intensity, low resistance and high heat tolerance, their manufacturing method and a multicore cable thereof. The extra-fine copper alloy wire has 1 to 3 weight % of silver in the copper, a wire diameter less than 0.025 mm, and a tensile strength of more than 850 MPa, an electrical conductivity of more than 85% IACS after heat treatment; the coaxial cable (20A) is configured that, an inner conductor is formed by an extra-fine copper alloy twisted wire (3) twisted from seven extra-fine copper alloy wires (1), the inner conductor is then peripherally envelopped with a solid insulator (5a) to form an extra-fine insulated wire (10), a plurality of conductor wires (13) are winding in a screw shape on the periphery of the extra-fine insulated wire along a length direction of the extra-fine insulated wire to form an outer conductor (15), thereafter, the outer conductor is envenlopped with a protection layer (17).

The invention discloses a device for automatically testing the performance of a cable bunch, which relates to a cable bunch performance testing device and solves the problems that the traditional cable bunch performance testing method is inefficient and incapable of detecting misconnection, over-connection and poor contact. A control interface board in the device is used for controlling a measuring interface board to sequentially connect each connector at one end of a cable bunch to be measured and each connector at the other end to two power output ends of an excitation power module respectively, controlling a voltage signal output by the excitation power module and detecting the voltage and the current between two terminals connected to a measuring circuit so as to obtain the resistance value of a lead wire to be measured; a measuring structure board comprises a measuring interface and a relay array and is used for selecting and switching a measured port; and the excitation power module comprises a high-voltage direct-current power supply, a low-voltage direct-current power supply and a constant-current direct-current power supply and is used for providing a power signal for measurement. The device is applicable to the performance testing of a multi-core cable bunch.

An electrical connector for detachable connection of a multi-core cable to a mating connector with a grip body which surrounds the cable and the cable cores, a contact carrier which holds a plurality of contact elements and a pivotally arranged sleeve-shaped threaded part. The individual contact elements are connected electrically conductively to the individual cores and the sleeve-shaped threaded part can be screwed to a corresponding sleeve-shaped threaded part of the mating connector. The connector contact elements mounted in corresponding open grooves of the contact carrier which run parallel to its longitudinal axis, and a side of the contact carrier facing the mating connector, bordering the grooves, has through holes corresponding to the number of grooves, through which holes the ends of the contact elements that face away from the cores project in the longitudinal direction of the contact elements, being inserted obliquely and pivoted in to a parallel orientation.

A seal member (50) is to be mounted on an end of a multi-core cable (40), in which a plurality of wires (41) are bundled together and covered with an outer sheath (42). The seal member (50) is to be accommodated into a rear housing (21) of a charging connector (10) and includes a rubber plug (51) and a restricting member (52) to be externally fit on the rubber plug (51). The rubber plug (51) is formed with a cable seal portion (53) that resiliently comes into close contact with the outer peripheral surface of the outer sheath (42), and the cable seal portion (53) includes a wire seal portion (54) that individually and resiliently comes into close contact with the outer peripheral surfaces of the wires.

The invention relates to a system for detecting the connectivity of a bank cable and a method thereof. In the system, a primary test end carries out detection through a tested cable together with a secondary test end; the primary test end and the secondary test end respectively comprises a voltage comparator, a test resistor and a singlechip; the singlechip at the primary end is connected to one end of one core wire of the cable through the test resistor, and the other end of the core wire is connected to the singlechip of the secondary end through the test resistor; the ends which are connected with the core wire of the cable, of the test resistances of the primary end and the secondary end are respectively connected with one voltage comparator; the output end of each voltage comparator is connected to the singlechip; when in test, the singlechip at the primary end respectively outputs high level to one core wire of the tested cable and low level to the other core wires of the tested cable, the current passes through the tested resistance, the voltage comparator of each core wire compares the detected voltage value with the reference voltage to obtain a logical result, the logical result is respectively input to the singlechips at the primary end and the secondary end and is comprehensively analyzed so as to judge whether each core wire is in a normal state, a disconnection state, a misconnection state, a state of short-circuit with the ground or a state of short-circuit between conductors.

For tracing multi-conductor cable runs from multiple phone / data locations throughout a building or complex to a junction facility where the cables need to be systematically identified and connected to a terminal panel, rapid tracing and identification are accomplished by deploying a large number of special low-cost senders, e.g. a set of forty eight senders, connecting as many senders as required to energize every cable at each location via its standard modular jack. Each sender delivers a unique identification signal, e.g. a spoken number from 1 to 48, energizing a corresponding phone cable and / or data cable. With all of the cables thusly energized simultaneously and distinguishably, a technician working with a proximity probe in the junction facility can rapidly identify and tag and / or connect all the cables in an uninterrupted session, without requiring the usual assistant and intercom link, and with no time wasted probing unenergized cables. For larger systems beyond the tracing capability of the set number of senders, a range switch provides three additional extension ranges with unique identification numbers to preserve a numerical sequence when more than one session is required. As an optional refinement, one or more of the senders may be further equipped to enable wire-mapping of all active conductors in the cables.

The invention discloses a multi-core cable. The multi-core cable comprises a central conductor and a plurality of conductors. An insulating layer is wrapped outside the central conductor. The multiple conductors surround the central conductor. An insulating layer with a fan-shaped section is wrapped outside each conductor. A gap is reserved between the insulating layer outside the central conductor and the insulating layer outside each conductor. A gap is also reserved between the insulating layers outside every two adjacent conductors. A sheath is wrapped outside the insulating layers of the conductors. According to the multi-core cable, the structure is simple, the insulating layers with the fan-shaped sections make protection more reliable, mutual interference between the inner conductors is avoided, the gaps between the insulating layers improve the heat dissipation performance on the premise that no heat dissipation mechanism is additionally arranged, and cost is low.

The invention relates to a polycore cable sequencing method based on digital frequency-modulation encoding and a device thereof. The device consists of a transmitter and a receiver, which are connected with the two ends of a polycore cable to be detected; during measurement, the transmitter designs digital encoded signals for each cable to be detected and sends the encoded signals to the cable to be detected after frequency modulation; a receiving end connects any two cables by a measuring probe, the received signals of the two cables obtain effective received signals of the cable marked as 'plus' end through a difference circuit; the effective received signals are modulated, thus obtaining the sequence numbers of connected cables and displaying the result. The measuring device adopting the measuring method of the invention has quite small volume is convenient for being used on site. No public reference lines are needed to during measurement, In addition, the adoption of the measuring method of the invention ensures higher reliability of the measurement and long-distance test.

An industrial robot including a base carrying out a relative linear motion, a body carrying out a relative rotary motion and a cable harness for supplying electric power or transmitting control signals to operating circuits, wherein the cable harness includes a first bundle located in the base and a second bundle located in the body to be integral with the body, wherein, in the first bundle, a plurality of multi-core cables and tubes are flatly arranged parallel to each other and each of the multi-core cables and the tubes are bonded to the adjacent one with adhesive, and wherein, in the second bundle, the plurality of multi-core cables and tubes are separated from each other.

A method of communication over a composite cable having a plurality of conductors, the method including placing an inductive coupler around the composite cable, coupling the composite cable to a signal input or output using the inductive coupler around the composite cable to communicate a signal to or from the composite cable, wherein the signal is communicated across the composite cable from a first location to a second location, wherein the inductive coupler is at one of the first location and the second location.

Cable terminal for end-face connection of the conductors of a preferably multicore cable. The cable terminal includes a plug part provided with contact elements, a core holding and guiding part, and a cable receiver. The core holding and guiding part includes core guidance channels, and the plug part and the and the cable receiver can be connected to one another. In the assembled state, the core holding and guiding part is located between the plug part and the cable receiver. Alignment of the individual cores to the contact elements of the plug part is accomplished by the core holding and guiding part which includes a first section of soft material, and a second section of hard material. In the first section, core guidance channels is provided while in the second section, a positioning aid is formed for exact alignment of the conductors to the contact elements.

To provide a multicore cable connector in which alignment of signal lines of a cable and soldering of the signal lines to a wiring pattern of a substrate are facilitated, and impedance mismatch on the substrate is minimized. A multicore cable connector 1 includes a cable fixing member 2, an aggregate cable 3 accommodated in cable fixing member 2, an aligning plate 4 for aligning signal lines 312 included in aggregate cable 3, and a substrate 5 formed with a wiring pattern 53 conductively connected to signal lines 312 of aggregate cable 3.

The cable possesses cable jacket, insulated conductor inside cable jacket, helix framework in center of cable jacket, strength rope in center of helix framework. At least one helix wire groove on helix framework stretched surrounding cable axis, and insulated conductor is embedded to the wire groove. Features of the invented cable are: even stress, any bending direction with high degree of freedom, steel rope supporting all weight of cable, current carrying part of cable not in tension, suspended and laid in horizontal, vertical any direction as well as Light weight and small size.

The invention discloses a driving device for controllable flux permanent-magnetic synchronous motors with built-in composite rotors. The driving device comprises a controller and a controllable flux permanent-magnetic synchronous motor with a built-in composite rotor, as well as a position sensor which is connected with an output shaft of the motor and is used for outputting absolute position signals of permanent-magnetic field space of the motor rotor, wherein the position sensor is connected with the controller through a multicore cable. The driving device is specially used for controlling the controllable flux permanent-magnetic synchronous motor with the built-in composite rotor, realizes the wide-range high-performance speed regulation of the controllable flux permanent-magnetic synchronous motor with the built-in composite rotor, and has the advantages of little stator copper loss and safety in use.

A cable assembly for an electrosurgical pencil comprises a power and signal transmitting multiple-core cable with an attachment plug, in which the power transmitting core has more conductors and thicker insulation than the two signal transmitting cores. The attachment plug has plastic plug-pins with spring-steel strips, or has metal plug-pins with recesses on the plug body near the plug-pins, to increase the flexibility to mate with any loose or tight socket. The cable assembly of this invention is cheaper in cost, lighter in weight, thinner in outside diameter, more flexible in total length and provides a more stable plug-socket connection.

The invention relates to a testing method and system for a long-distance multi-core cable. The testing method comprises the steps that resistors of known resistances are connected in series among core wires at the far end of the multi-core cable; on-resistances between the core wires are respectively measured at the near end of the multi-core cable; and the resistors of the known resistance at the far end of the multi-core cable are removed, and high-voltage insulating resistances between the core wires are respectively measured at the near end of the multi-core cable. The testing system comprises a cable tester and a terminating device. When the long-distance multi-core cable is tested via the method and system, the cable tester can test each core wire of the multi-core cable at the near end, and the terminating device is simple in structure in which only the resistors of the known resistances are connected in series among different jacks, so that a testing device is simple in operation and structure, and capable of testing the long-distance multi-core cable whose technical states cannot be changed.

The invention discloses a device and a method for detecting a multi-core cable, and the device comprises a front wire-connecting terminator, a back wire-connecting terminator, an electroprobe wire-connecting terminator and a plurality of three-level jumper switches. By selecting the connecting states of the three-level jumper switches and cooperating with a multimeter, the invention can implement the detection of the connected state of a multi-core cable which includes the detection of the correct wiring, wrong wiring and connected states, as well as the detection of the short-connected state between centre yarns in the production, installation, debug and inspection process of the equipment of semiconductor technologies and production lines, etc. The invention has simple structure, convenient using and low cost, and can lead the multi-core cable detection to be implemented by a single person, thus saving labor force and improving labor efficiency.

The invention relates to a distributed parallel electrical method data collecting cable device. Most of electrodes of high-density electrical method detection system are centralized and correspond to cables, the multi-core cable with more than 30 cores is adopted, a cable system is complicated, a control distance between measuring lines is limited, detection precision is low, and reliability is poor. According to the arrangement, an upper computer, silo launch and host control sets, collecting cables and electrodes. The upper computer is connected with the silo launch and host control sets through communication networks. Each collecting cable includes fiver cores comprising two emission wires, one public ground wire and two twisted-pair wires. The electrodes which are loaded with same structures include an emission electrode A, an emission electrode B, a public ground wire electrode M, a public ground wire electrode N and a potential difference collecting electrode. One end of each twisted-pair wire is provided with a terminator. The distributed parallel electrical method data collecting cable device has the advantages that few cores are required, use is reliable, maintenance is convenient, the electrodes, having the data collecting function and the same structures, can serve as the current electrodes as well as the receiving electrodes through the internal circuit switch and after powered, can automatically register and number without manual regulation.

The invention relates to a multi-core cable wire testing device, aiming to solve the problems of low efficiency, easy errors, hardly discovery of poor contact caused by faulty welding between a wire and a terminal, and the like in the prior art. The multi-core cable wire testing device comprises a testing instrument and a vibrator, wherein the testing instrument comprises an operation panel and a testing circuit which is formed by sequentially connecting a multivibrator, a frequency division loop, a sequential output loop and a display loop in series, a power supply supplies power to the multivibrator and the loops, and two testing sockets are respectively connected with the sequential output loop and the display loop. The invention detects a multi-core cable wire under the vibration condition, can not only detect the wiring correction, but also detect whether hidden danger, such as poor contact due to faulty welding, and the like exists.

An improved data telemetry system for multi-conductor wirelines to achieve satisfactory transmission of analog and digital signals with frequency content up to 100 kHz by assigning at least two conductors to a first terminal of a data transmittal means and to a first terminal of a data receiver means and connecting at least one additional conductor to a second terminal of a data transmittal means and to a second terminal of a data receiver means. Pairing conductors reduces attenuation and crosstalk and permits the signal to contain multiple frequency modulated carrier bands with individual channel bandwidths of up to 3 kHz or higher.