Abstract: A refuse vehicle includes a chassis, a refuse container coupled to the chassis, a tractive assembly coupled to the chassis and configured to propel the refuse vehicle, and an electric energy system configured to provide electrical energy to drive the tractive assembly. In a first configuration, a first energy system is removably coupled to the chassis and configured to provide the electrical energy to the electric energy system and in a second configuration, the first energy system is removed from the chassis and replaced with a second energy system, the second energy system removably coupled to the chassis and configured to provide the electrical energy to the electric energy system.

Abstract: A vehicle includes a chassis, a vehicle body, a hydraulic system, a battery, and an electric power take-off system. The electric power take-off system includes an inverter electrically coupled to the battery, a motor electrically coupled to the inverter and configured to power the hydraulic system, a cooling circuit in thermal communication with the inverter, and a fluid pump configured to pump cooling fluid through the cooling circuit.

Abstract: A refuse vehicle includes a chassis, an energy storage device, a body, a first electric power take-off system, and a second electric power take-off system. The energy storage device is supported by the chassis and is configured to provide electrical power to a prime mover. Activation of the prime mover selectively drives the refuse vehicle. The body is supported by the chassis. The first electric power take-off system is coupled to at least one of the body and the chassis, and includes a first motor that is configured to drive a first hydraulic pump to convert electrical power received from the energy storage device into hydraulic power. The second electric power take-off system is coupled to at least one of the body and the chassis, and includes a second motor that is configured to drive a second hydraulic pump to convert electrical power received from the energy storage device into hydraulic power.

Abstract: A thermal monitor control system for a refuse vehicle includes a plurality of onboard devices including a first onboard device and a second onboard device, a plurality of sensors including a first sensor configured to collect a first data set and a second sensor configured to collect a second data, and a processing circuit configured to receive the first data set from the first sensor and the second data set from the second sensor, define a normal operating profile, receive a third data set from the first senor and a fourth data set from the second sensor, compare the third data set and the fourth data set to the normal operating profile, and cause the onboard messaging system to display the alert to the operator in response to determining that the third data set or the fourth data set differs from the normal operating profile.

Abstract: A vehicle includes an automated apparatus extending from the vehicle and a projection system. The projection system includes a projector positioned on the vehicle. The projector is configured to operate to provide a projection onto a ground surface, the projection covering a zone. The automated apparatus is configured to operate within the zone.

Abstract: A refuse vehicle includes a chassis supporting a plurality of wheels, a vehicle body supported by the chassis and defining a receptacle for storing refuse therein, a lifting system coupled to the vehicle body and movable relative to the receptacle, wherein the lifting system is configured to lift a refuse container and empty refuse in the refuse container into the receptacle, at least one sensor configured to detect a thermal event in or near the refuse container, wherein the lifting system is configured to stop lifting the refuse container in response to the thermal event being detected.

Abstract: A refuse vehicle includes multiple systems, each system including a sensor. The refuse vehicle also includes an automated check system. The automated check system includes processing circuitry configured to obtain sensor data from the sensor of each of the multiple systems, determine which of the multiple systems require manual inspection based on the sensor data, and operate a display screen to prompt a technician to manually inspect one or more of the multiple systems.

Abstract: A refuse vehicle includes a chassis, a body, a lock, a tailgate, an ejector, an actuator, a second actuator, and a processor. The body defines a receptacle for storing refuse. The lock is coupled to the body and is configured to releasably secure a movable tailgate. The receptacle contains the ejector. The ejector can transition from a first position that is spaced from the tailgate to a second position proximate the tailgate. The actuator is configured to transition the ejector from the first position to the second position. The second actuator is configured to move the tailgate. The processor is configured to selectively unlock the tailgate and transition the ejector from the first position to the second position in response to receiving a single input to thereby eject refuse from the receptacle without receiving multiple inputs.

Abstract: A property management software system (PMSS) receives, from a client device connected to the PMSS, a request associated with a property management task, identifies a workflow corresponding to the property management task, the workflow comprising a sequence of operations, generates a prompt based on the request, the workflow, and additional contextual data from the PMSS, and provides the prompt as an input to a generative AI model agent, the generative AI model agent to execute the sequence of operations to perform the property management task.

Abstract: In examples, a method comprises receiving input from a first user relating to a first variable of a first portion of a road network, determining first semantic data associated with the first variable, determining the absence of a lock for the first portion based on the first semantic data, and causing a first lock to be implemented for the first portion based on the first semantic data. The first lock in examples indicates that users other than the first user are to be prevented from making changes to a first set of variables of the first portion that are associated with the first semantic data.

Abstract: A method and apparatus are provided for sorting items to a plurality of sort bins. After the items are sorted into the sort bins the sort bins may be automatically emptied into separate containers. Alternatively, the sort bins may be discharged from the apparatus to be processed at a remote destination. The apparatus may include a plurality of delivery vehicles for delivering items to the sort bins. The apparatus may further include a plurality of retrieval vehicles for retrieving the sort bins after all the items for a grouping are sorted to the bin. The retrieval vehicles may be configured to move the retrieved bins to one or more discharge stations where the items in the sort bins may be emptied into separate containers such as boxes for shipping the items.

Abstract: A power state management system of an electronic system is coupled to a plug load device and a method for operation of the same. The system includes a context clock to adjust a duty cycle of the electronic system for controlling the power states of the electronic system for more efficient use of electricity. The context clock is responsive to user input, multiple event driven activities or an external protocol determined policy or command. Interface circuitry communicates user input, multiple event driven activities or an external protocol determined policy or command to the context clock. Interface circuitry also communicates commands to the managed plug load device or devices.

Abstract: A power state management system of an electronic system is coupled to a plug load device and a method for operation of the same. The system includes a context clock to adjust a duty cycle of the electronic system for controlling the power states of the electronic system for more efficient use of electricity. The context clock is responsive to user input, multiple event driven activities or an external protocol determined policy or command. Interface circuitry communicates user input, multiple event driven activities or an external protocol determined policy or command to the context clock. Interface circuitry also communicates commands to the managed plug load device or devices.

Abstract: A ?-flap type nano/micro mechanical device with a lower electrode 1,1a, 1b, an upper electrode layer 2, an dielectric layer 3 arranged between the lower electrode 1,1a,1b and the upper layer 2, such that the dielectric layer 3 and said upper electrode layer—2 form a layered body 4, the layered body 4 comprising a horizontal recess 5 in a side portion of the dielectric layer 3, and an overhanging portion 6 of reduced thickness over the recess 5 that forms a gap 5a; such that the overhanging portion 6 forms a ?-flap 6a which extends over the gap 5a. The device is a capacitative-based device in which the mechanical motion can be measured at room temperature and without monolithic integration thereof with an integrated circuit but that can be easily integrated with complementary metal oxide semiconductor (CMOS) circuitry.