Underground production drill communication system
A communication system ( 10 ) for an underground production drill ( 8 ), comprising a slave unit ( 12 ) comprising a CAN bus interface ( 14 ) and an electrical power controller ( 16 ) and rechargeable battery ( 18 ), said controller ( 16 ) configured to monitor a status and regulate charging of said battery ( 18 ). The controller ( 16 ) and battery ( 18 ) encapsulated in a thermally-conductive fire retardant material ( 10 ). The slave unit ( 12 ) includes a first protocol converter ( 24 ) and powered via the power controller ( 16 ) and configured to convert between wireless network and CAN bus protocols, and a first wireless transceiver ( 26 ) arranged in signal communication with the power controller ( 16 ) and first protocol converter ( 24 ) and configured to transceive the wireless network protocol and transmit the status of the battery ( 18 ). System ( 10 ) includes a master unit ( 28 ) comprising a CAN bus interface ( 14 ), a second protocol converter ( 30 ) and a second wireless transceiver ( 32 ).
1 . A communication system for an underground production drill, said system comprising:
at least one slave unit comprising:
a) a CAN bus interface;
b) an electrical power controller and rechargeable battery, said controller configured to monitor a status and regulate charging of said battery, as well as control the provision of electrical energy from the battery to the CAN bus interface, the controller and battery encapsulated in a thermally-conductive fire-retardant material;
c) a first protocol converter arranged in signal communication with the CAN bus interface and powered via the power controller and configured to convert between wireless network and CAN bus protocols, the protocol converter configured to represent a terminating bias circuit to facilitate electrical bias and termination at an end of a CAN bus segment; and
d) a first wireless transceiver arranged in signal communication with the power controller and first protocol converter and configured to transceive the wireless network protocol and transmit the status of the battery; and
a master unit comprising:
i) a CAN bus interface;
ii) a second protocol converter arranged in signal communication with the CAN bus interface and configured to convert between wireless network and CAN bus protocols;
iii) a second wireless transceiver arranged in signal communication with the second protocol converter, uniquely paired with the first wireless transceiver and configured to receive the battery status; and
iv) an indicator configured to indicate the battery status;
wherein the master unit is retrofittably interfaceable with an existing CAN bus control system of the underground production drill and the at least one slave unit is retrofittably interfaceable with a conventional CAN bus hydraulic actuator of said drill, whereby a wireless Controller Area Network is establishable between the control system and actuators.
2 . The system of claim 1 , wherein the slave unit and/or master unit is enclosed in a robust enclosure resistant against impact damage and/or the ingress of fluids and dirt.
3 . The system of claim 2 , wherein the enclosure includes at least one magnet for magnetically attaching to the drill.
4 . The system of claim 1 , wherein the master unit includes a power interface for interfacing with an existing power supply of the drill, said power supply for supplying the second protocol converter, transceiver and indicator.
5 . The system of claim 1 , wherein the master unit includes a second electrical power controller and rechargeable battery for supplying the second protocol converter, transceiver and indicator.
6 . The system of claim 5 , wherein the second electrical power controller and rechargeable battery are encapsulated in a thermally-conductive fire-retardant material.
7 . The system of claim 6 , wherein the thermally-conductive fire-retardant material comprises a thermally conductive potting compound, resin and/or epoxy.
8 . The system of claim 1 , wherein the wireless network protocol is selected from a non-exclusive group consisting of IEEE 802.11 (Wi-Fi™) and IEEE 802.15 (Bluetooth™) family of communication protocols.
9 . The system of claim 1 , wherein the battery status is selected from a non-exclusive group consisting of battery charge level, battery health, battery discharge rate and battery temperature.
10 . The system of claim 1 , wherein the indicator includes a visual indicator and/or an audible indicator.
11 . An underground production drill including:
at least one slave unit comprising:
a) a CAN bus interface;
b) an electrical power controller and rechargeable battery, said controller configured to monitor a status and regulate charging of said battery, as well as control the provision of electrical energy from the battery to the CAN bus interface, the controller and battery encapsulated in a thermally-conductive fire-retardant material;
c) a first protocol converter arranged in signal communication with the CAN bus interface and powered via the power controller and configured to convert between wireless network and CAN bus protocols, the protocol converter configured to represent a terminating bias circuit to facilitate electrical bias and termination at an end of a CAN bus segment; and
d) a first wireless transceiver arranged in signal communication with the power controller and first protocol converter and configured to transceive the wireless network protocol and transmit the status of the battery; and
a master unit comprising:
i) a CAN bus interface;
ii) a second protocol converter arranged in signal communication with the CAN bus interface and configured to convert between wireless network and CAN bus protocols;
iii) a second wireless transceiver arranged in signal communication with the second protocol converter, uniquely paired with the first wireless transceiver and configured to receive the battery status; and
iv) an indicator configured to indicate the battery status;
wherein the master unit is interfaced with an existing CAN bus control system of the underground production drill and the at least one slave unit is interfaced with at least one existing CAN bus hydraulic actuator of said drill, whereby a wireless Controller Area Network is establishable between the control system and actuators.
12 . The underground production drill of claim 11 , wherein the slave unit and/or master unit is enclosed in a robust enclosure resistant against impact damage and/or the ingress of fluids and dirt.
13 . The underground production drill of claim 12 , wherein the enclosure includes at least one magnet for magnetically attaching to the drill.
14 . The underground production drill of claim 11 , wherein the master unit includes a power interface for interfacing with an existing power supply of the drill, said power supply for supplying the second protocol converter, transceiver and indicator.
15 . The underground production drill of claim 11 , wherein the master unit includes a second electrical power controller and rechargeable battery for supplying the second protocol converter, transceiver and indicator.
16 . The underground production drill of claim 15 , wherein the second electrical power controller and rechargeable battery are encapsulated in a thermally-conductive fire-retardant material.
17 . The underground production drill of claim 16 , wherein the thermally-conductive fire-retardant material comprises a thermally conductive potting compound, resin and/or epoxy.
18 . The underground production drill of claim 11 , wherein the wireless network protocol is selected from a non-exclusive group consisting of IEEE 802.11 (Wi-Fi™) and IEEE 802.15 (Bluetooth™) family of communication protocols.
19 . The underground production drill of claim 11 , wherein the battery status is selected from a non-exclusive group consisting of battery charge level, battery health, battery discharge rate and battery temperature.
20 . The underground production drill of claim 11 , wherein the indicator includes a visual indicator and/or an audible indicator.