Cart system
A cart system includes a plurality of carts, each cart having a battery, a processor and at least one switching and conditioning circuit, the plurality of carts physically coupled in a mutual and external charging configuration, wherein, under the control of a plurality of processors, the plurality of switching and conditioning circuits condition, switch and route the electrical signal within and between each cart among the plurality of carts. The electrical signal may be switched, routed or conditioned based on semantic analysis. A first cart includes a socket connector which may include an electrical or latching component, and which may be physically connected or latched to secure it with a pairing socket connector of a second cart.
1 . A cart system, comprising:
a plurality of carts forming the cart system, the plurality of carts including at least a first cart and a second cart;
the first cart having a first electrical power module with a first signal conditioner, the first cart further having a first battery, a first processor and a first memory accessible by the first processor;
the second cart having a second electrical power module with a second signal conditioner, the second cart further having a second battery, a second processor and a second memory accessible by the second processor;
the first electrical power module and the second electrical power module being connectable in a mutual electrical charging configuration in which the first electrical power module is electrically coupled with the second electrical power module via a first physical socket coupling;
wherein the first processor is programmed to operate the first signal conditioner to condition an electrical signal to produce and deliver a first conditioned electrical signal to the first battery to provide charging electrical power to the first battery and further to deliver the first conditioned electrical signal to the second electrical power module; and
wherein the second processor is programmed to operate the second signal conditioner to condition the first conditioned electrical signal to produce and deliver a second conditioned electrical signal to the second battery to provide charging electrical power to the second battery; and
wherein the first signal conditioner comprises a first switching regulator operated by the first processor based on a determination of a first charging goal for the first cart and a second charging goal for the second cart, the first charging goal and the second charging goal being determined based on a plurality of semantics indicative of user interests of a plurality of projected users, whereby the first battery is charged in accordance with the first charging goal.
2 . A cart system, comprising:
a plurality of carts forming the cart system, the plurality of carts including at least a first cart and a second cart;
the first cart having a first electrical power module with a first signal conditioner, the first cart further having a first battery, a first processor and a first memory accessible by the first processor;
the second cart having a second electrical power module with a second signal conditioner, the second cart further having a second battery, a second processor and a second memory accessible by the second processor;
the first electrical power module and the second electrical power module being connectable in a mutual electrical charging configuration in which the first electrical power module is electrically coupled with the second electrical power module via a first physical socket coupling;
wherein the first processor is programmed to operate the first signal conditioner to condition an electrical signal to produce and deliver a first conditioned electrical signal to the first battery to provide charging electrical power to the first battery and further to deliver the first conditioned electrical signal to the second electrical power module;
wherein the second processor is programmed to operate the second signal conditioner to condition the first conditioned electrical signal to produce and deliver a second conditioned electrical signal to the second battery to provide charging electrical power to the second battery; and
wherein the first signal conditioner comprises a first switch operated by the first processor based on semantic analysis, the semantic analysis being based on a plurality of charging goals based on a plurality of user interests associated with a plurality of projected users, whereby the first battery is charged in accordance with a first charging goal from among the plurality of charging goals and the second battery is charged in accordance with a second charging goal from among the plurality of charging goals.
3 . The cart system of claim 1 , wherein the first cart is further coupled to an external power charging socket.
4 . The cart system of claim 1 , wherein the first cart and the second cart are robotic carts.
5 . The cart system of claim 1 , wherein the second processor is programmed to map the first cart to an at least one endpoint among a plurality of endpoints.
6 . The cart system of claim 1 , wherein the first signal conditioner comprises a first conditioning circuit having a first rectifier.
7 . The cart system of claim 1 , wherein the first signal conditioner comprises a first conditioning circuit having a first inverter.
8 . A cart system, comprising:
a plurality of carts forming the cart system, the plurality of carts including at least a first cart and a second cart;
the first cart having a first electrical power module with a first signal conditioner, the first cart further having a first battery, a first processor and a first memory accessible by the first processor;
the second cart having a second electrical power module with a second signal conditioner, the second cart further having a second battery, a second processor and a second memory accessible by the second processor;
the first electrical power module and the second electrical power module being connectable in a mutual electrical charging configuration in which the first electrical power module is electrically coupled with the second electrical power module via a first physical socket coupling;
wherein the first processor is programmed to operate the first signal conditioner to condition an electrical signal to produce and deliver a first conditioned electrical signal to the first battery to provide charging electrical power to the first battery and further to deliver the first conditioned electrical signal to the second electrical power module;
wherein the second processor is programmed to operate the second signal conditioner to condition the first conditioned electrical signal to produce and deliver a second conditioned electrical signal to the second battery to provide charging electrical power to the second battery;
wherein the first signal conditioner is connected to a first latching socket on the first cart, wherein the first latching socket is arranged to couple to and latch with a second latching socket on the second cart; and
wherein the first latching socket and the second latching socket are latched or unlatched based on a semantic goal.
9 . The cart system of claim 8 , wherein the first latching socket and the second latching socket each includes a set of male and female connectors.
10 . The cart system of claim 8 , wherein the first latching socket and the second latching socket each includes a set of pin connectors and at least one of a seat or guide.
11 . A cart system, comprising:
a plurality of carts forming the cart system, the plurality of carts including at least a first cart and a second cart;
a first switching and conditioning circuit carried on the first cart, the first cart further having a first battery, a first processor and a first memory accessible by the first processor;
a second switching and conditioning circuit carried on the second cart, the second cart further having a second battery, a second processor and a second memory accessible by the second processor;
the first cart and the second cart being connected in a mutual electrical charging configuration in which the first cart is electrically coupled with the second cart via a first electrical socket;
wherein the first processor is programmed to operate the first switching and signal conditioning circuit to condition an electrical signal to produce a first conditioned electrical signal and to switch and route the first conditioned electrical signal to provide charging electrical power to the first battery or to the second cart;
wherein the second processor is programmed to operate the second switching and signal conditioning circuit to condition the received first conditioned electrical signal to produce a second conditioned electrical signal and to switch and to route the second conditioned electrical signal to provide charging electrical power to the second battery or to an additional cart from among the plurality of carts; and
wherein the first switching and signal conditioning circuit comprises a first switching regulator operated by the first processor based on semantic analysis, wherein the semantic analysis is based on a semantic drift inference in rapport with a semantic goal.
12 . The cart system of claim 11 , wherein the first switching and signal conditioning circuit comprises a first rectifier.
13 . The cart system of claim 11 , wherein the first switching and signal conditioning circuit comprises a first inverter.
14 . The cart system of claim 11 , wherein the first cart is further coupled to an external power charging socket.
15 . The cart system of claim 11 , wherein each of the carts among the plurality of carts are robotic carts.
16 . The cart system of claim 11 , wherein the second memory stores a plurality of endpoints and further, wherein the second processor is programmed to map the first cart to an at least one endpoint among the plurality of endpoints.
17 . A cart system, comprising:
a plurality of carts forming the cart system, the plurality of carts including at least a first cart and a second cart;
a first switching and conditioning circuit carried on the first cart, the first cart further having a first battery, a first processor and a first memory accessible by the first processor;
a second switching and conditioning circuit carried on the second cart, the second cart further having a second battery, a second processor and a second memory accessible by the second processor;
the first cart and the second cart being connected in a mutual electrical charging configuration in which the first cart is electrically coupled with the second cart via a first electrical socket;
wherein the first processor is programmed to operate the first switching and signal conditioning circuit to condition an electrical signal to produce a first conditioned electrical signal and to switch and route the first conditioned electrical signal to provide charging electrical power to the first battery or to the second cart;
wherein the second processor is programmed to operate the second switching and signal conditioning circuit to condition the received first conditioned electrical signal to produce a second conditioned electrical signal and to switch and to route the second conditioned electrical signal to provide charging electrical power to the second battery or to an additional cart from among the plurality of carts; and
wherein the first switching and signal conditioning circuit comprises a first switch operated by the first processor based on semantic analysis, wherein the semantic analysis is based on a semantic drift inference in rapport with a semantic goal.
18 . A cart system, comprising:
a plurality of carts forming the cart system, the plurality of carts including at least a first cart and a second cart;
a first switching and conditioning circuit carried on the first cart, the first cart further having a first battery, a first processor and a first memory accessible by the first processor;
a second switching and conditioning circuit carried on the second cart, the second cart further having a second battery, a second processor and a second memory accessible by the second processor;
the first cart and the second cart being connected in a mutual electrical charging configuration in which the first cart is electrically coupled with the second cart via a first electrical socket;
wherein the first processor is programmed to operate the first switching and signal conditioning circuit to condition an electrical signal to produce a first conditioned electrical signal and to switch and route the first conditioned electrical signal to provide charging electrical power to the first battery or to the second cart;
wherein the second processor is programmed to operate the second switching and signal conditioning circuit to condition the received first conditioned electrical signal to produce a second conditioned electrical signal and to switch and to route the second conditioned electrical signal to provide charging electrical power to the second battery or to an additional cart from among the plurality of carts;
wherein the first signal conditioning circuit is connected to a first latching socket attached to the first cart, wherein the first latching socket couples and latches with a second latching socket attached to the second cart; and
wherein the first latching socket and the second latching socket are latched or unlatched based on a semantic goal.
19 . The cart system of claim 18 , wherein the first latching socket and the second latching socket each include a set of male and female connectors.
20 . The cart system of claim 18 , wherein the first latching socket and the second latching socket each comprise a set of pin connectors wherein the pin connectors are actuated to extend and retract within a seat or guide hole to make contact and electrically couple with a matching pin connector within the seat or guide hole.
21 . A cart system, comprising:
a plurality of carts forming the cart system, the plurality of carts including at least a first cart and a second cart;
a first power switching module and a first signal conditioning module attached to the first cart, the first cart further having a first battery, a first processor and a first memory accessible by the first processor;
a second power switching module and a second signal conditioning module attached to the second cart, the second cart further having a second battery, a second processor and a second memory accessible by the second processor;
the first cart and the second cart being connected in a mutual electrical charging configuration in which the first cart is electrically coupled with the second cart via one or more electrical sockets;
wherein the first processor is programmed to operate the first power switching module and the first signal conditioning module to condition an electrical signal from the first battery to produce a first conditioned signal and to switch and to route the first conditioned signal to the second cart;
wherein the second processor is programmed to operate the second power switching module and the second signal conditioning module to condition the received first conditioned electrical signal and to produce a second conditioned electrical signal and to switch and to route the second conditioned electrical signal to provide charging electrical power to the second battery or to an additional cart from among the plurality of carts; and
wherein the first switching module and the first signal conditioning module comprises a first switching regulator operated by the first processor based on semantic analysis, wherein the semantic analysis is based on a semantic drift inference in rapport with a semantic goal.
22 . A cart system, comprising:
a plurality of carts forming the cart system, the plurality of carts including at least a first cart and a second cart;
a first power switching module and a first signal conditioning module attached to the first cart, the first cart further having a first battery, a first processor and a first memory accessible by the first processor;
a second power switching module and a second signal conditioning module attached to the second cart, the second cart further having a second battery, a second processor and a second memory accessible by the second processor;
the first cart and the second cart being connected in a mutual electrical charging configuration in which the first cart is electrically coupled with the second cart via one or more electrical sockets;
wherein the first processor is programmed to operate the first power switching module and the first signal conditioning module to condition an electrical signal from the first battery to produce a first conditioned signal and to switch and to route the first conditioned signal to the second cart;
wherein the second processor is programmed to operate the second power switching module and the second signal conditioning module to condition the received first conditioned electrical signal and to produce a second conditioned electrical signal and to switch and to route the second conditioned electrical signal to provide charging electrical power to the second battery or to an additional cart from among the plurality of carts; and
wherein the first switching module and the first signal conditioning module comprises a first switch operated by the first processor based on semantic analysis, wherein the semantic analysis is based on a semantic drift inference in rapport with a semantic goal.
23 . The cart system of claim 21 , wherein the first signal conditioning module comprises a first inverter.
24 . The cart system of claim 21 , wherein the first cart is further coupled to an external power charging socket.
25 . The cart system of claim 21 , wherein each of the plurality of carts are robotic carts.
26 . The cart system of claim 21 , wherein the second memory stores a plurality of endpoints and further, wherein the second processor is programmed to map the first cart to at least one endpoint among the plurality of endpoints.
27 . A cart system, comprising:
a plurality of carts forming the cart system, the plurality of carts including at least a first cart and a second cart;
a first power switching module and a first signal conditioning module attached to the first cart, the first cart further having a first battery, a first processor and a first memory accessible by the first processor;
a second power switching module and a second signal conditioning module attached to the second cart, the second cart further having a second battery, a second processor and a second memory accessible by the second processor;
the first cart and the second cart being connected in a mutual electrical charging configuration in which the first cart is electrically coupled with the second cart via one or more electrical sockets;
wherein the first processor is programmed to operate the first power switching module and the first signal conditioning module to condition an electrical signal from the first battery to produce a first conditioned signal and to switch and to route the first conditioned signal to the second cart;
wherein the second processor is programmed to operate the second power switching module and the second signal conditioning module to condition the received first conditioned electrical signal and to produce a second conditioned electrical signal and to switch and to route the second conditioned electrical signal to provide charging electrical power to the second battery or to an additional cart from among the plurality of carts;
wherein the first signal conditioning module is connected to a first latching socket carried on the first cart, wherein the first latching socket couples and latches with a second latching socket carried on the second cart, wherein the first latching socket and the second latching socket comprise each a set of male and female connectors; and
wherein the first latching socket and the second latching socket are latched or unlatched based on a semantic goal.
28 . The cart system of claim 27 , wherein the first latching socket and the second latching socket each comprise a set of pin connectors wherein the pin connectors are actuated to extend and retract within a seat or guide hole to make contact and electrically couple with a matching pin connector within the seat or guide hole.