An automated food slicing device is provided. The automated food slicing device may automate the cutting, packaging, and/or labelling of food items such as delicatessen food items. The automated food slicing device may also have a computerized input that allows a user to provide inputs regarding selected options which the slicing device will follow to provide a customized food product.

The invention is a monitoring system for determining a vehicle safety setting based on weight. The system includes a monitoring station, a weight determination system, a data input device configured to receive input data, and a processing device. The processing devices includes a processor and non-volatile memory. The processor is configured to receive load ratings for a tow vehicle and tow equipment, receive weight data from the weight determination system, and receive the input data from the data input device. The processor is also configured to determine at least one safety setting based on the load ratings, the weight data, and the input data, send the safety setting data to the monitoring system, and communicate the safety setting to a user.

A computer system comprising a processor device configured to determine that the vehicle is approaching or is located on a weighing device, and when it has been determined that the vehicle is approaching or is located on the weighing device, provide, to the vehicle, information indicating that the vehicle should activate weigh mode, wherein the weigh mode comprises locking of a suspension system of the vehicle such that a current suspension of the vehicle is maintained when the vehicle is being weighed by the weighing device.

A conveyor with a weighing system includes a conveyance unit, a length calculation module, a weighing module, and a controller. The conveyance unit conveys a cargo to move. The length calculation module is arranged at one side of a front end of the conveyance unit to acquire a length of the cargo. The weighing module is arranged at a bottom part of the conveyor. The controller is connected to the length calculation module and the weighing module, such that based on the length acquired by the length calculation module, a weight of the cargo measured by the weighing module is provided. A weighing method of a conveyor is also provided.

An automated food slicing device is provided. The automated food slicing device may automate the cutting, packaging, and/or labelling of food items such as delicatessen food items. The automated food slicing device may also have a computerized input that allows a user to provide inputs regarding selected options which the slicing device will follow to provide a customized food product.

The present invention relates to a method and a weighing scale for weighing vehicles, the weighing scale comprising a weighing bridge having a first and second side for entering and leaving the weighing bridge; a weighing circuit comprising a first set of load sensors and a second set of load sensors coupled to a weight indicator, the first set of load sensors being arranged at the first side and the second set of load sensors being arranged at the second side; a measuring circuit arranged to measure at least one unbalance current in the weighing circuit when a vehicle enters or leaves the weighing bridge; a processing circuit arranged to determine at least one point in time when wheels of the vehicle enter the first side or leave the second side based on the at least one unbalance current.

A measuring device includes a data acquisition unit that acquires measurement data, including width direction acceleration of a road surface on which a moving object moves, from an acceleration sensor provided on a structure having the road surface, and a moving object information acquisition unit that acquires information relating to the moving object moving on the road surface, on the basis of the width direction acceleration.

A conveyor belt and a sensing system for sensing various conditions on a conveyor belt. The belt includes an array of sensing elements embedded in the belt to measure belt conditions. The sensing elements form parts of passive resonant circuits that each include a capacitor and an inductive coil. The capacitor or the inductive coil can be a sensing element. Measuring circuits external to the belt are inductively or capacitively coupled to the resonant circuits in the belt as they pass closely by. The sensing elements change the resonant frequency of their resonant circuits as a function of the sensed conditions. Frequency detectors in the measuring circuits measure that frequency change and convert it into a functionally related value used to determine a belt condition. Exemplary conditions include temperature, pressure, humidity, spillage, and product weight.

Provided is a safety inspection apparatus for a bridge using an expansion joint with a load cell capable of inspecting safety of a bridge and checking an overweight of a traveling vehicle by including a load cell installed at a lower portion of an expansion joint installed between upper plates of a bridge to measure a load of a traveling vehicle, and a measuring device installed on the bridge to measure behavior of the bridge, determining a total weight of a vehicle to manage an operation of an overweight vehicle which hinders safety of a structure and road pavement, measuring and storing weight data of a vehicle passing over the bridge as behavior data of the bridge in real time, and determining performance, a degree of deterioration, and a damaged position of the bridge without a separate safety inspection by analyzing the data over the long term.

A weighing device includes: a weighing cell which weighs an article and outputs an original signal corresponding to the weight of the weighed article; a filter unit which performs a filtering process on the original signal output from the weighing cell; a controller which makes a waveform of a weighing signal subjected to the filtering process be displayed on a touch panel; and a storage unit which stores at least one of the original signal and the weighing signal, wherein the controller predicts and generates the waveforms of a plurality of weighing signals in a case of performing a plurality of filtering processes having different characteristics on the original signal or the weighing signal stored in the storage unit, and makes the waveforms of the plurality of weighing signals be displayed on the touch panel.