Koninklijke Philips Corporation N.v.

Asml Netherlands B.v.

Other

Polymer Vision Limited

Paulus Cornelis Duineveld

Coen Theodorus Hubertus Fransiscus Liedenbaum

Jochem Petrus Maria De Koning

Eliav Itzhak Haskal

Ivo Godfried Jozef Camps

Johannes Tseard Van Der Kooi

Joeke Noordhuis

Fred Fraij

Maria Henrica Wilhelmina Antonia Van Deurzen

Willem Sjouke Wijma

Helmar Van Santen

Aleksey Yurievich Kolesnychenko

Peter Dirksen

Herbert Lifka

Joseph W Grez

Hendrik Cornelis Koeling

Klaas Kooijker

Martinus Bernardus Stapelbroek

Jeroen Herman Lammers

Gustaaf Frans Brouwer

Jasper Zuidervaart

Sepas Setayesh

Eva Mondt

Philippe Jacques Van Camp

Stephanus Jacob Gerardus Tamminga

Marinus Christiaan Hansen

Carolien Willemijn Geijzendorffer

Johannes Hotze Bernhard De Vries

Wiecher Ferdinand Kamping

Petrus Henricus De Leeuw

Pieter Kingma

Johannes Petrus Antonius Maria Van Asseldonk

Arjan Teodor Van Wieringen

Harko Jan Taekema

Timotheus Johannes Maria Van Aken

Krijn Maltha

Franciscus Maria Johannes Van Roemburg

Henk Borg

Cornelis Frederik Akerboom

Cornelis Dirk Roelandse

Mark Thomas Johnson

Josephus Arnoldus Henricus Maria Kahlman

Nigel David Young

Marcel Rene Bohmer

Menno Willem Jose Prins

Bart Johannes Massee

Fokke Roelof Voorhorst

Gerbrand Kristiaan De Graaff

Lucas Josef Maria Schlangen

Wolter F Benning

Olaf Thomas Johan Antonie Vermeulen

Gerwin Hermanus Gelinck

Bart Gottenbos

Pieter Jacob Snijder

Lutz Christian Gerhardt

Alwin Rogier Martijn Verschueren

Ytsen Wielstra

Matthijs Hendrikus Lubbers

Hee Keng Chua

Michel Marcel Jose Decre

Patrick John Baesjou

Valentina Lavezzo

Mischa Megens

Jozef Johannes Maria Janssen

Craig Kortick Black

Roel Alexander Rethmeier

Chee Keong Ong

Peter Sofrides Viet

Joldert Maria Boersma

Bastiaan Uitbeijerse

Marc Alexander Pastoors

Gertrude Riëtte Bakker-Van Der Kamp

Jeroen Henri Antoine Maria Van Buul

Jerry Wood

James Donald Gwyer

Marijn Kessels

Edwin Wilco Drost

Wiebe Wierda

Garrett Kotlarchik

Wilhelmus Hendrikus Maria Bruggink

Dirkjan Bernhard Van Dam

Zeynep Sabah

Alexandra Kulas

Paul Bas

Peter Alexander Wachters

Kok Wah Ma

Mark Van Wijhe

Jingqi Hou

Paulus Hermanus Van Wolferen

Katrina Rockey

Stephanus Tamminga

Johannes De Vries

Gerbrand Kristiaan De Graaf

Hermanus Josephus Kodden

Gerardus Henricus Riet Jens

Gerardus Henricus Rietjens

Oscar Johannes Antoinetta Buijk

Jeroen Johannes Marinus Vleggaar

Margaretha Maria De Kok-Van Breemen

An expression kit () for use in a breast pump device () for extracting breast milk from a human breast comprises a breast pump body () having a first pressure chamber (), a second pressure chamber (), and a membrane portion () separating the first and the second pressure chamber () from each other. The membrane portion () is configured to form a barrier between the first and the second pressure chamber () for preventing leakage of human breast milk from the second pressure chamber () to the first pressure chamber (), yet to allow for air exchange between the first and the second pressure chamber (), wherein the membrane portion () is hydrophobic and has the shape of a solid sheet being provided with holes () which are configured for rendering the sheet permeable to air and impermeable to liquid.

Expression kit for a breast pump device

The invention provides an electronic domestic appliance () comprising a decalcifying apparatus () for purifying an aqueous liquid, wherein the electronic domestic appliance () comprises an electronic connector () for connecting to an external AC power source wherein the electronic connector () is functionally coupled with the DC power supply (), the electronic domestic appliance () further comprising a functional element () wherein purified aqueous liquid is applied and/or stored.

Electrosorption purification system with battery driven regeneration

The present invention relates to a separation component () for a feeding bottle device () and a corresponding feeding bottle device (). The separation component () provides a separation between a container space () of the baby bottle device () and a feeding space () for providing liquid to an infant, the separation component () comprising a hole wall portion () surrounding a hole () through the separation component () for allowing a passage of fluid from the container space () to the feeding space () therethrough, wherein the hole wall portion () is formed such that, when a pressure of the feeding space () side is lower than a pressure of the container space () side, a minimum cross-sectional area of the hole () is reduced with increased pressure difference between feeding space () and container space (). A decreased risk of overfeeding an infant is achieved.

Separation component for a feeding bottle device

The invention relates to a mouthpiece for performing a treatment of teeth such as teeth whitening. Accordingly, the mouthpiece may be arranged for cosmetic treatment. The treatment is based on illumination of the teeth of light with a suitable wavelength. The mouthpiece is designed so that light from light sources, e.g. LED's, is sufficiently homogenized so that the light irradiance at the teeth is sufficiently uniform to achieve good treatment results. Furthermore, the mouthpiece is designed so that the irradiance at the teeth is sufficiently high to achieve efficient treatment and so that heating of the teeth is minimized to an acceptable heating.

Mouthpiece for dental treatment

The present invention relates to a heating device () for heating food () in a container (), in particular milk in a baby bottle. The heating device comprising a chamber () configured to contain a fluid () and to receive the container (), a heating unit () for heating the fluid, a temperature measuring element () for measuring the temperature of the fluid () over time to obtain a temperature profile () over time, and a controller () for controlling the heating unit () based on the obtained temperature profile of the fluid.

Heating device for heating food in a container, in particular milk in a baby bottle

A liquid containing system for a floor cleaning device, the liquid containing system comprising an outlet having a plurality of openings (H) to allow a liquid (W) to be extracted by means of capillary force when a mopping substrate, e.g. a cloth (C), is mounted against the plurality of openings (H), after filling the liquid containing system being substantially closed but for the plurality of openings (H).

Floor cleaning device

A valve, such as for feeding appliances, has an inner space and walls partly enclosing the inner space. The inner space has a smaller first end and an opposing larger second end. The first end has a dimension being larger than 0 mm and smaller than or equal to 0.2 mm, and the inner space forms an opening through the valve or is closed at the first end by a closing part of the valve. The closing part of the valve has a thickness which is smaller than or equal to 0.1 mm.

Valve and manufacturing method for manufacturing the valve

A vortex finder () for a cyclonic separator () through which air flowing in a helical path 'D' about an axis A-A of a cyclone chamber () passes to an outlet () is disclosed. The vortex finder comprises a plurality of stationary overlapping vanes () extending in an axial direction and spaced radially around said axis 'A', the vanes () being positioned relative to each other so a helical flow of air about the axis of the cyclone chamber () passes over an outer surface () of the vanes () with a portion of the air flow being redirected around a leading edge () of each vane () and through a gap between adjacent vanes () to the outlet (). At any point along the axis, a portion of an outer surface () of each vane () lies on a circle having its center coaxial with said axis, the outer surface () of each vane () having a portion leading towards the leading edge () that extends inwardly away from the circle so that the leading edge () of each vane () about which air is redirected through the gap between vanes () is located within a region bound by said circle to create a region of overpressure on the outer surface () of the adjacent vane () in the vicinity of the gap.

Vortex finder for a cyclonic separator

A teat includes a stem and a nipple, in which a structured area has an undulating surface on at least a partial region of the stem or nipple. The surface roughness of the undulating surface being greater than 100 &#x3bc;m.

Teat

The spray assembly for a droplet spray teeth cleaning system includes a guidance member at the end thereof. The spray assembly includes a nozzle through which a spray of liquid is directed to the teeth for cleaning. The guidance member is configured and mounted relative to the nozzle to provide a selected standoff distance between the nozzle and the teeth and includes a portion which is configured to fit in the interproximal space between adjacent teeth and gums, or against the frontal portions of the teeth, so that the user knows the location of the spray relative to the teeth.

Locating/guidance tip assembly for a liquid droplet spray teeth cleaning system

A device () comprises a source () for emitting ultraviolet light, an inlet () for letting in fluid to the device (), an outlet () for letting out fluid from the device (), and means () for performing a straightening action of a flow of fluid through the device (). The flow straightening means comprise at least one flow straightening element () having inlet openings for letting in fluid at one side and outlet openings for letting out fluid at another side, wherein each inlet opening is in communication with a plurality of outlet openings, and wherein the element () comprises a maze of randomly arranged, interconnected holes. In such a structure, a water element that is moving from one side of the element () to another side may take one of various paths, as a result of which variations in inlet conditions can be dampened.

Device comprising a source for emitting ultraviolet light

An iron (), comprising: a water reservoir (), configured to hold liquid water; a heatable soleplate (), including at least one mist outlet opening (); water atomization means (), configured to atomize water from the water reservoir so as to generate a mist of water droplets at a mist generation site () mist distribution means (), configured to distribute the mist from the mist generation site () to the at least one mist outlet opening (), comprising: a distribution channel (), extending from an air inlet (), along the mist generation site (), to the at least one mist outlet opening (); and an air flow generator (), disposed in or adjacent said distribution channel and configured to generate an airflow that transports the water droplets, from the mist generation site (), through the distribution channel (), to the at least one mist outlet opening ().

Iron featuring liquid phase garment moisturization

An iron (), comprising: &#x2014;a water reservoir (), configured to hold liquid water; &#x2014;a heatable soleplate (); &#x2014;at least one water outlet opening (); &#x2014;a water atomization and distribution unit (), configured to atomize water from the water reservoir and to distribute the atomized water to the at least one water outlet opening; &#x2014;at least one sensor (), configured to monitor at least one motion dependent variable of the iron and to generate a reference signal reflecting said variable; &#x2014;a control unit (), operatively connected to both the water atomization and distribution unit () and the at least one sensor (), and configured to control a water outflow rate of the at least one water outlet opening () by controlling the operation of the water atomization and distribution unit in dependence of the reference signal generated by the at least one sensor.

Iron featuring liquid phase garment moisturization via soleplate

The sprayhead device includes a housing () having an orifice plate () therein with at least one orifice opening () therethrough. A liquid line () delivers liquid to the sprayhead, where it proceeds through the orifice opening, wherein the liquid flow rate through the orifice and the liquid pressure are sufficiently great relative to the size of the orifice that the liquid moves through the orifice as a continuous stream. Gas is delivered to the housing and gas flows to the interior of the sprayhead through at least two openings () in the housing. The gas streams (flows) intercept the liquid flow perpendicularly, approximately 180&#xb0; apart. The velocity of the gas flows is sufficient to break up the liquid stream from the orifice into a spray of droplets of desired size and velocity, accelerating them out of an acceleration duct () exit portion of the housing.

Sprayhead apparatus for generating a gas-assisted droplet spray for use in oral cleaning

A baby feeding bottle () is provided that comprises a wall member () having an inner surface (), a bottom part () and an upper part (). Further a temperature indicator () is provided. The inner surface () of the wall member () defines an internal space (). The bottle () further comprises a thermally conductive element () that is thermally connected to the temperature indicator () and extends from the bottom part () to the upper part () of the wall member () along at least part of the inner surface () thereof. The thermally conductive element () has a surface area that is significantly smaller than the surface area of the inner surface () of the wall member ().

Baby feeding bottle

Growing community of inventors

Drachten, Netherlands

Paulus Cornelis Duineveld