Altria Client Services LLC

Philip Morris USA Inc.

Chrysalis Technologies Incorporated

Philip Morris Products S.a.

Rangaraj S Sundar

Eric Hawes

Raymond W Lau

Jarrett Keen

Niall Gallagher

Christopher S Tucker

David Rubli

Isaac Weigensberg

Moshe Eliyahu

Yuval Malka

Arye Weigensberg

Bipin R Patil

Yannick Hourmand

Shmuel Gavrielov

Scott A Fath

William J Bogdziewicz

Terry Bache

Zack W Blackmon

Dean Twite

Charles Lester Dendy

Christopher R Newcomb

Terrance Theodore Bache

Gregory L Nelson

Sarojini Deevi

Patrick Good

Zack Blackmon

Ryan Newcomb

Adam Parrott

Craig Gunn

Georgios D Karles

Seetharama C Deevi

Stephen J Bellamah

Yezdi B Pithawalla

Sean Sundberg

David Bennett

Kelli McKenna

Nicolas D Castro

Ed Carmines

William Wykeham

Greg Nelson

Phillip Diana

James Yorkshades

Guy Moseley

Peter J Lipowicz

William R Sweeney

Gerd Kobal

Henry M Dante

William J Crowe

Ryan Mcginley

Ashok H Solanky

Dwadasi H Sastry

Shumel Gavrielov

Guillaume Michel

Thomas Tran

Clarke Crump

Christopher Ryan Newcomb

Ashok Solanky

Henry Dante

Nicola Westgarth-flynn

A capsule for a heat-not-burn (HNB) aerosol-generating device may include a housing and a heater within the housing. The housing has interior surfaces defining a chamber configured to hold an aerosol-forming substrate. In addition, the housing has exterior surfaces constituting a first face, an opposing second face, and a side face of the capsule. The first face and the second face of the capsule are permeable to an aerosol. The heater has a first end section, an intermediate section, and a second end section. The first end section and the second end section of the heater may be external segments constituting parts of the side face of the capsule. The intermediate section of the heater is an internal segment disposed within the chamber of the housing.

Capsules including internal heaters, heat-not-burn (HNB) aerosol-generating devices, and methods of generating an aerosol

A method of controlling a heater of a device including a removable container that stores a material includes detecting, from the removable container, power information indicating a first operating point and a second operating point; and supplying power to the heater based on the detected power information by, determining a first amount of power based on the first operating point, supplying the first amount of power to the heater during a first operation mode of the heater, determining a second amount of power based on the second operating point, and supplying the second amount of power to the heater during a second operation mode of the heater, the second amount of power being higher than the first amount of power, the device being a non-nicotine e-vaping device or a heat-not-burn aerosol-generating device, the material being a non-nicotine pre-vapor formulation or an aerosol-forming substrate.

Heating engine control algorithm for non-nicotine e-vapor device

An apparatus for assembling a heater assembly for a nicotine pod assembly includes a base, a wick feed, a slide, and a holder. The wick feed extends toward the base and defines a channel configured to receive a wick structured to draw a nicotine pre-vapor formulation via capillary action. The slide is configured to move along a plane on a top face of the base. The holder is disposed on the top face of the base.

Apparatus and method for assembling a heater assembly for a nicotine pod assembly

An apparatus for assembling a heater assembly for a non-nicotine pod assembly includes a base, a wick feed, a slide, and a holder. The wick feed extends toward the base and defines a channel configured to receive a wick structured to draw a non-nicotine pre-vapor formulation via capillary action. The slide is configured to move along a plane on a top face of the base. The holder is disposed on the top face of the base.

Apparatus and method for assembling a heater assembly for a non-nicotine pod assembly

A charging system for an aerosol-generating device includes a processor and a memory in communication with the processor and configured to store instructions is provided. The instructions define at least one of a disable mode, an intra-session mode, or an inter-session mode. The processor is configured to execute the instructions to cause the charging system to detect when the device is connected to a charging device; activate a power source charger in response to the connection to the charging device; identify a selected mode; enable or disable a heater of the capsule dependent upon the selected mode; if the heater is enabled, display a first display indicating the connection of the charging device; if the heater is enabled, detect if a session of the aerosol-generating device is ongoing; and if the session is ongoing, enable or suspend charging in response to the identification of the selected mode.

Charging systems for aerosol-generating devices

Aerosol-generating capsule

A capsule may include a housing, an aerosol-forming substrate, and a heater. The housing defines inlet openings, outlet openings, and a chamber between the inlet openings and the outlet openings. The chamber may have a longest dimension extending from at least one of the inlet openings to a corresponding one of the outlet openings. The aerosol-forming substrate is within the chamber of the housing. The heater is embedded in the housing. The heater includes a first end section, an intermediate section, and a second end section. The intermediate section is disposed within the aerosol-forming substrate in the chamber. An aerosol-generating device may include a device body with a lid configured to open to permit an insertion of the capsule and configured to close to engage the capsule within the device body.

Heat-not-burn (HNB) aerosol-generating devices and capsules

A method of controlling a hot wire anemometer (HWA) of a nicotine e-vaping device includes controlling, by a first PID controller, a level of power applied by the nicotine e-vaping device to the HWA based on a temperature of a heated element of the HWA and a temperature setpoint; generating a puff detection signal indicating whether or not a puff is currently occurring with respect to the nicotine e-vaping device; and while the puff detection signal indicates that a puff is not currently occurring with respect to the nicotine e-vaping device, detecting, by a second PID controller, a change in an ambient temperature of the HWA, and controlling, by the second PID controller, the temperature setpoint such that the temperature setpoint changes in response to the detected change in the ambient temperature of the HWA.

Hot wire anemometer air flow measurement, puff detection and ambient temperature tracking

A method of controlling a hot wire anemometer (HWA) of a non-nicotine e-vaping device includes controlling, by a first PID controller, a level of power applied by the non-nicotine e-vaping device to the HWA based on a temperature of a heated element of the HWA and a temperature setpoint; generating a puff detection signal indicating whether or not a puff is currently occurring with respect to the non-nicotine e-vaping device; and while the puff detection signal indicates that a puff is not currently occurring with respect to the non-nicotine e-vaping device, detecting, by a second PID controller, a change in an ambient temperature of the HWA, and controlling, by the second PID controller, the temperature setpoint such that the temperature setpoint changes in response to the detected change in the ambient temperature of the HWA.

A connector assembly of a cartridge of an electronic vaping device may be formed by metal in-molding. The connector assembly may include a connector body that is integrally formed. The connector body may include a base portion that is generally cylindrical, a nose portion extending from a first end of the base portion, and at least two slots extending longitudinally through the base portion and on opposing sides of the nose portion. An electrical lead extends through each of the at least two slots.

Electronic vaping device and connector assembly

Example embodiments relate to a method of protecting a surface of an e-vaping device portion from corrosion, the method including preparing a coating mixture configured to protect the surface from corrosion, and coating the surface with a protective coating based on the coating mixture, wherein the coating is performed via one of electrodeposition, dipping, spraying, and vapor deposition, and the coating mixture includes at least one of a silane and a resin.

Corrosion-resistant reservoir for an e-vaping device and method of manufacturing thereof

An aerosol-generating device includes a housing that defines a capsule-receiving cavity, a lid configured to close the housing, and a replaceable mouthpiece coupleable to the lid such that air entering the housing and drawn through the capsule-receiving cavity exits out of the mouthpiece. The lid may be fixedly coupled to the housing at a first point and releasably coupleable to the housing at a second point. The capsule-receiving cavity may have a first end having a first width, and a second end have a second width that is different from the first width. The capsule-receiving cavity may be tapered between the first end and the second end. The mouthpiece may be coupleable to the first end. One or more alignment member may be disposed at or towards the second end. The alignment members may include seals and/or electrical connections and/or flat surfaces and/or angled surfaces.

The heating engine control circuit includes a rail converter circuit and a gate driver circuit. The rail converter circuit is configured to convert a power supply voltage into a power signal based on a vaping enable signal, the vaping enable signal being a pulse width modulated signal. The gate driver circuit includes an integrated gate driver. The integrated gate driver is configured to control application of power to a heater to heat nicotine pre-vapor formulation drawn from a nicotine reservoir at the nicotine electronic vaping device based on the power signal, a first enable signal and a second enable signal.

Heating engine control circuits and nicotine electronic vaping devices including the same

The heating engine control circuit includes a rail converter circuit and a gate driver circuit. The rail converter circuit is configured to convert a power supply voltage into a power signal based on a vaping enable signal, the vaping enable signal being a pulse width modulated signal. The gate driver circuit includes an integrated gate driver. The integrated gate driver is configured to control application of power to a heater of the non-nicotine electronic vaping device based on the power signal, a first enable signal and a second enable signal.

Heating engine control circuits and non-nicotine electronic vaping devices including the same

A folded heater of an electronic vaping device includes a first plurality of U-shaped segments arranged in a first direction and defining a first side of the heater and a second plurality of U-shaped segments arranged in the first direction and defining a second side of the heater. The second side is substantially parallel to the first side. The heater also includes a first lead portion and a second lead portion. The first plurality of U-shaped segments, the second plurality of U-shaped segments, the first lead portion, and the second lead portion are a single integral member.

Folded heater for electronic vaping device

Growing community of inventors

Richmond, VA, United States of America

Rangaraj S Sundar