Abstract:
An automated frothing assembly. The automated frothing assembly has a wand module that includes an elongate member having an inlet, one or more outlets, and a fluid passageway extending between and in fluid communication with the inlet and the plurality of outlets. At least one of the one or more outlets extends parallel to a vertical plane that includes the centerline of the elongate member and at an acute angle relative to a horizontal plane that is perpendicular to both the vertical plane and the centerline of the elongate member. The assembly further includes an actuator configured to be operatively coupled to the wand module and to drive the movement of at least a portion of the wand module along an axis, and an electronic controller configured to be electrically coupled to the actuator and to control the operation of the actuator to control the movement of the wand module.
Abstract:
The present disclosure describes an automated blend in-cup apparatus and the related method of operation. The disclosure relates generally to the field of mixing consumable material. More specifically, the disclosure relates to a mixer that is automatically operable to lower a mixing blade into a cup or vessel that contains material to be blended/mixed. A shield is automatically lowered to at least partially isolate the cup. The apparatus further comprises a well with an inlet manifold and a drain and a fixed but removable cup-receiving holder. The shield can include a magnetic portion that is detected by a first sensor on the apparatus. A safety interlock prevents the actuation of the mixing blade in the event that the magnetic portion is not proximate to the first sensor. Overall, the apparatus is effective, fast, easy to operate, safe, and clean.
Abstract:
Embodiments of the present invention are directed to a stirrer tool that includes a head component having a first plurality of projections extending substantially radially out from and substantially perpendicular to a longitudinal axis of a body portion. Head component may also have a second plurality of projections extending in a substantially distal direction away from a distal end of the body portion, and all of the projections may be made of a substantially stiff material that is flexible enough to be bent to fit through an opening in a container that is smaller in diameter than a diameter of the head component and stiff enough to mix viscous products. The projections may further be capable of being shortened by cutting off a selected length of the projections. The first plurality of projections may be configured to create a vortex mixing action and the second plurality of projections may be configured to reach and stir up sediment on bottoms and in corners of containers. The system may further include an elongate shaft, which may be coaxially aligned with, and a distal end of the elongate shaft may be attached to the head component and the proximal end of the elongate shaft may be configured to be removably held in a device to rotate the elongate shaft.
Abstract:
A blending containment assembly includes a cover having a first aperture and a cup seal connected to the cover. The cup seal is a flexible material having a second aperture. The cover and the cup seal are configured to receive a spindle of a blending assembly in the first aperture and the second aperture. The cover and the cup seal are movable to engage a cup to create a seal between an inside of the cup and an outside of the cup.
Abstract:
A splash guard assembly for a blending apparatus includes a splash guard mount that is attachable to the blending apparatus and a splash guard body that is removably attachable to the splash guard mount such that the splash guard body can be removably attached to the splash guard mount without the use of tools. In particular, the splash guard body can be removed from and attached to the splash guard mount directly by hand—by a user's hand or hands with no intervention of tools.
Abstract:
The present disclosure describes an automated blend in-cup apparatus and the related method of operation. The disclosure relates generally to the field of mixing consumable material. More specifically, the disclosure relates to a mixer that is automatically operable to lower a mixing blade into a cup or vessel that contains material to be blended/mixed. A shield is automatically lowered to at least partially isolate the cup. After mixing, the shield and blade are automatically retracted, and the cup is removed from the apparatus. The shield and blade may be automatically lowered again for a cleaning operation. Use of the apparatus can be accomplished with one hand. Overall, the apparatus contains various structural and safety elements that provide a unique construction and method of operating the apparatus. The apparatus is effective, fast, easy to operate, safe, and clean.
Abstract:
Embodiments of the present invention are directed to a stirrer tool that includes a head component having a first body portion and a second body portion connected to the first body portion with a first plurality of projections extending substantially radially out from and substantially perpendicular to a longitudinal axis of a body portion. Head component may also have a second plurality of projections extending in a substantially distal direction away from a distal end of the body portion, and all of the projections may be made of a substantially stiff material that is flexible enough to be bent to fit through an opening in a container that is smaller in diameter than a diameter of the head component and stiff enough to mix viscous products. The system may further include an elongate shaft, which may be coaxially aligned with and a distal end of the elongate shaft may be attached to the head component and the proximal end of the elongate shaft may be configured to be removably held in a device to rotate the elongate shaft.
Abstract:
Embodiments of the present invention are directed to a stirrer tool that includes a head component having a first plurality of projections extending substantially radially out from and substantially perpendicular to a longitudinal axis of a body portion. Head component may also have a second plurality of projections extending in a substantially distal direction away from a distal end of the body portion, and all of the projections may be made of a substantially stiff material that is flexible enough to be bent to fit through an opening in a container that is smaller in diameter than a diameter of the head component and stiff enough to mix viscous products. The projections may further be capable of being shortened by cutting off a selected length of the projections. The first plurality of projections may be configured to create a vortex mixing action and the second plurality of projections may be configured to reach and stir up sediment on bottoms and in corners of containers. The system may further include an elongate shaft, which may be coaxially aligned with, and a distal end of the elongate shaft may be attached to the head component and the proximal end of the elongate shaft may be configured to be removable held in a device to rotate the elongate shaft.
Abstract:
A device for preparing a gelatin-based product may comprise a mix tank, a mix pod that is fluidly coupled to the mix tank via a pod spike, and a hot water tank, where the hot water tank is coupled to the mix pod via the pod spike. In at least one example, the pod spike may comprise an outer tube and an inner tube. In one or more examples, the pod spike of the device may comprise a hub, where a first end of the outer tube is coupled to the hub. Further, in some examples, a first end of the inner tube may also be coupled to the hub.
Abstract:
An automated mix in-cup apparatus includes a frame having a cup-holder to secure a tapered cup selectively placed therein, and a first motor operatively connected to the cup-holder to rotate the cup-holder. A reciprocating carriage is axially supported by the frame and supports a second motor and a rotatable mixing blade to mix a consumable material. The mixing blade is secured to a shaft axially extending from the second motor, the shaft defining a longitudinal axis and the second motor configured to rotate the shaft and the mixing blade. Reciprocal movement of the carriage axially translates the mixing blade into and out of the tapered cup in the cup-holder. The cup-holder and the first motor are oriented at an incline, defining a tilt angle relative to the longitudinal axis of the shaft, whereby the shaft and the rotatable blade are positioned off-center relative to the tapered cup in the cup-holder.