Abstract:
A light assembly coupled to a spray gun for spraying electrostatically charged coating material is disclosed. The spray gun includes a gun body comprising a barrel, a nozzle assembly extending from the barrel in a longitudinal direction, a voltage multiplier, and an actuator assembly configured to transition the voltage multiplier between an activated state and a deactivated state. The light assembly includes a light and circuitry electrically connected to the light. The circuitry is configured to supply electrical energy inductively obtained by the circuitry to the light when the voltage multiplier is in the activated state. The light assembly can also include a housing, a lens cover releasably attached to the housing, and a control member for changing a characteristic of the light.
Abstract:
An electrohydrodynamic atomizer (Z), as well as a method for operating an electrohydrodynamic atomizer wherein the atomizer comprises an atomizer unit (ZE) and a fluid tank (1), and the atomizer unit comprises the assemblies which are necessary for electrohydrodynamic atomization, wherein at least one assembly comprises a high voltage generator (HV) which provides the high voltage which is necessary for the electrohydrodynamic atomization, and at least one assembly comprises a pump system (P) in order to deliver the fluid which is to be atomized to an atomizer nozzle unit (D), wherein the atomizer unit comprises an assembly with an electronic controller (S), in particular with at least one processor unit, and wherein the fluid tank (1) comprises a data memory (10), wherein a means for exchanging data is formed between the fluid tank (1) and at least one assembly of the atomizer unit.
Abstract:
A method for the function control of an electrohydrodynamic atomizer (20), wherein an electrohydrodynamically atomized fluid (23), originating from the atomizer (20), is applied to a body, e.g. a person, in order to coat this body at least in certain areas, wherein the atomizer (20) comprises a fluid tank for storing the fluid (23) and at least one high voltage source for making available a high voltage and at least one pump unit for transporting the fluid, wherein the fluid (23) is delivered to a nozzle arrangement of the atomizer (20) by means of the pump unit, and wherein the fluid (23) is atomized electrohydrodynamically at the nozzle arrangement by means of the effect of the high voltage from the high voltage source, wherein a voltage and/or a current at the high voltage source is evaluated in order to acquire a working point of the high voltage source via a current/voltage characteristic curve.
Abstract:
Constructive arrangement provided in nozzles for sprayers to be installed in self-propelled, trailed boom spray equipment or coupled with a linear cover bus and without the aid of wind, capable of being used next to the nozzle holder where the induction ring allows horizontal and vertical adjustment to the nozzles.
Abstract:
A system and method for shaping and/or directing a spray stream includes electrostatically charging a spray stream by exposing fluid to be sprayed to an electrical field within a fluid sprayer to create an electrostatically charged spray stream, and then creating an electrical field between secondary electrodes externally to the fluid sprayer such that the electrostatically spray stream is shaped and/or redirected as it passes through the electrical field.
Abstract:
An electrostatic painting device capable of reducing any AC or electromagnetic emissions when the device is powered on is provided. The emissions affect electronic components present during painting of various objects or even when the device is powered on. The electromagnetic induction into the conductive circuit elements in turn induces voltages and currents, which potentially harm the micro-electronic circuits. One such device includes a choke between a fluid tip and a high voltage source of the device to reduce these emissions. The voltage source may include at least one capacitor which supplies the AC emissions representing electromagnetic emissions risk during the discharge of paint from the device. The choke connected to the voltage source substantially reduces the emissions involved during the paint discharge, while allowing the discharge of electrons, thereby imparting negative DC charge to the paint and the workpiece, and preventing damage to electronic circuits during the process.
Abstract:
A size-selective aerosol nozzle that includes an impactor body with an internal enclosed sidewall spanning in a directional longitudinally from a distal end of a distal spray end to a central sidewall terminal end and defining a central spray channel and a fluid segregation member. The segregation member may include an internal enclosed sidewall defining at least one liquid removal channel spanning laterally away from a central spray channel, defining a second aerosol discharge outlet in fluid communication with the central spray channel, and spans into the central spray channel to bifurcate the central spray channel into the liquid removal channel and an aerosol discharge channel. The fluid segregation member has an inner surface defining the liquid removal channel and is in an overlapping configuration with the internal enclosed sidewall to mechanically segregate emitted aerosol spray from the first aerosol discharge outlet of a portable hand-held aerosol spray assembly.
Abstract:
A shaping air ring (10) is configured of a body (11), a cover (13) and a nozzle (15). A tapered conical protrusion (17) is provided in a front end of the nozzle (15) to abut on the cover (13) in contact therewith without a clearance therebetween. Numerous inclined recessed grooves (20) are provided on a forward tapered surfaces (17C) of the conical protrusion (17) over the entire periphery. Further, a first shaping air ejecting hole (23) is formed between each of the inclined recessed grooves (20) and an inner peripheral surface (13B2) of the cover (13) to eject shaping air toward a releasing edge (9E) of a rotary atomizing head (9). Second shaping air ejecting holes (24) are provided on an inner peripheral surface (16A) of the nozzle (15) to eject shaping air along an outer peripheral surface (9C) of the rotary atomizing head (9).
Abstract:
An air assisted electrostatic liquid spray nozzle assembly having a relatively long elongated nozzle body with a spray tip and surrounding air cap disposed at a downstream end of the nozzle body. The spray nozzle assembly includes an upstream electrode for connection to a high voltage electric source, an elongated feed tube, an electrically enhancing stinger, and the spray tip which are secured and retained by the air cap in electrically conductive relation to each other such that liquid passing through liquid passages of the electrode, feed tube, stinger, and spray tip is discharged in an electrostatically charged pattern of liquid particles. The air cap is removable to permit easy removal and replacement of the spray tip, stinger, and liquid feed tube.
Abstract:
Femtoliter to milliliter volumes of one or a plurality of different liquids are accurately transported, dispensed and/or treated where the fluids are energized purely electrokinetically or in a hybrid mode where auxiliary coordinated energy sources including but not limited to pneumatic, piezoelectric; peristaltic; ultrasonic; thermal; gravitational, acoustic are employed concurrently or sequentially to transport liquids for various purposes from diverse devices to targets of all types being made of a conductive, non-conductive or semiconductive materials. Liquids in nested Gaussian surfaces or common liquid handling devices (e.g., syringes, pipettes, pumps) or more complicated devices (Nanoscreen's syringes or Roche's polypipetter) can be energized by use of one source of energy and also by electric induction or conduction of lumen or targets or both and are optionally concurrently or sequentially combined with non electrical energy to effect highly accurate volumetric and spatial liquid transport with active or passive flight direction yielding non touch or touch liquid sample placement, parallel dispensing, with or without filtration, SPE, LC, or other treatment technologies and for scientific instrument introduction for IBF, MALD, DESI, DART and other sample introduction and for drug delivery, diagnostics, manufacturing of products, product tagging, sample preparation or related applications.