Philips Research - Download Pictures
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17 x 17 cm, 300 dpi, 2053 KB
Battery technology Philips' Lithylene™ battery technology allows to shape batteries in different forms without compromising on price or performance. Photo: Philips |
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17 x 17 cm, 300 dpi, 1018 KB
Battery technology Philips' Lithylene™ battery technology allows to shape batteries in different forms without compromising on price or performance. Photo: Philips |
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17 x 17 cm, 300 dpi, 796 KB
Battery technology Philips' Lithylene™ battery technology allows to shape batteries in different forms without compromising on price or performance. Photo: Philips |
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8.5 x 6 cm, 300 dpi, 50 KB
Battery technology Lithylene™ battery. Photo: Philips |
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13,5 x 10 cm, 300 dpi, 378 KB
Battery technology Curved Lithylene™ battery Photo: Philips |
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17 x 10 cm, 300 dpi, 656 KB
HDTV HDTV turns up the viewing experience. Photo: Philips |
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22 x 19 cm, 300 dpi, 901 KB
Home Networks Digital storage allows to use the stored content in any networked device in the home. Photo: Philips |
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7.5 x 3.5 cm, 300 dpi, 138 KB
Home Networks Digital Home Network development. Photo: Philips |
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7.5 x 3.5 cm, 300 dpi, 138 KB
Home Networks Digital Home Network development. Photo: Philips |
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19 x 25.5 cm, 300 dpi, 1353 KB
Lighting Scientists at Philips have developed new LED retrofit lamp prototypes that are bright, compact, robust and energy-efficient. The prototypes have been equipped with a standard fitting and can therefore be used in existing sockets. Photo: Philips |
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17 x 25.5 cm, 300 dpi, 1258 KB
Lighting Philips’ advanced liquid crystal technology shapes the light from LEDs. The size, shape and direction of the beam of light from one specific light source can be electrically adjusted to create different lighting atmospheres. Photo: Philips |
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17 x 25.5 cm, 300 dpi, 1535 KB
Lighting Philips’ advanced liquid crystal technology shapes the light from LEDs. The size, shape and direction of the beam of light from one specific light source can be electrically adjusted to create different lighting atmospheres. Photo: Philips |
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25.5 x 17 cm, 300 dpi, 1150 KB
Lighting Philips has developed an innovative color scanning and pointing device called the LightWand. To 'paint' a selected color into a display area, the user simply point the LightWand at the appropriate light source. Photo: Philips |
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25.5 x 17 cm, 300 dpi, 1618 KB
Lighting To select a color, users simply touch a suitably colored object with the LightWand. Photo: Philips |
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25.5 x 19 cm, 300 dpi, 1769 KB
Lighting Philips has developed a display cube that automatically changes the color of its interior lighting in response to the color of the product placed in it. Photo: Philips |
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25.5 x 19 cm, 300 dpi, 1733 KB
Lighting To select a color, users simply touch a suitably colored object with the LightWand. Photo: Philips |
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18 x 25.5 cm, 300 dpi, 1396 KB
Lighting Scientists at Philips Research have developed a new intuitive lighting control concept, in which the color of the light is controlled by the color of the marble that is placed in the bowl. Photo: Philips |
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25.5 x 16.5 cm, 300 dpi, 1566 KB
Lighting Philips’ prototypes of colored organic LEDs (Light-Emitting Diodes) for lighting applications. Photo: Philips |
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20 x 25 cm, 300 dpi, 1504 KB
Lighting Philips’ prototype of colored organic LED (Light-Emitting Diode) for lighting applications. Photo: Philips |
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25.5 x 17 cm, 300 dpi, 1695 KB
Lighting Philips’ prototype of colored organic LED (Light-Emitting Diode) for lighting applications. Photo: Philips |
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17 x 17 cm, 300 dpi, 1351 KB
Extreme UV A close up of the light beam. Photo: Philips |
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17 x 17 cm, 300 dpi, 1202 KB
Extreme UV Evaluation of a light source at Philips Extreme UV Photo: Philips |
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17 x 13 cm, 300 dpi, 979 KB
Lighting Research on interactive light-emitting systems used in textiles. The resulting drapeable luminaire structures open up a wide range of innovative lighting applications in the fields of atmosphere providing, illumination and indication. Photo: Philips |
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20 x 20 cm, 300 dpi, 1248 KB
Lighting Using blue LEDs to make white light can be done by combining the LED chip with a yellow emitting luminescent material (such as cerium-doped yttrium aluminum garnet) in a single package. Photo: Philips |
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20 x 20 cm, 300 dpi, 1116 KB
Lighting Prototype of a white OLED for lighting applications. Photo: Philips |
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10.5 x 8 cm, 300 dpi, 99 KB
UHP lamps Ultra-High Performance lamps have a luminosity that exceeds that of the sun. That luminosity, combined with its lifetime of over 10,000 hours, makes the UHP lamp the standard for most commercially available front and rear projection systems. Photo: Philips |
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17 x 17 cm, 300 dpi, 807 KB
Solid-state lighting Lifetime testing of colour converters for solid-state lighting. Photo: Philips |
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17 x 17 cm, 300 dpi, 983 KB
Lighting Characterization of high-efficiency organic LEDs for lighting applications. Photo: Philips |
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17 x 17 cm, 300 dpi, 807 KB
Lighting High-performance chemicals for white LEDs used for lighting applications. Photo: Philips |
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13,5 x 10 cm, 300 dpi, 508 KB
Lighting Green emitting, high efficiency small molecule organic LEDs from Philips Research Aachen. Photo: Philips |
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17 x 11 cm, 300 dpi, 1128 KB
Low Power Ultra-low-power connectivity provides the basis for very-low-cost wireless sensor nodes to sense and transmit vital signs with body-worn or implanted devices. Photo: Philips |
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12.5 x 12.5 cm, 300 dpi, 497 KB
Low Power Chip of DC/DC converter with coil and capacitors mounted on a printed-circuit board. Photo: Philips |
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25.5 x 18 cm, 300 dpi, 958 KB
Lumalive Lumalive takes you by surprise Photo: Philips |
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25.5 x 17 cm, 300 dpi, 1400 KB
Lumalive Lumalive takes you by surprise Photo: Philips |
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25.5 x 17 cm, 300 dpi, 1470 KB
Lumalive Philips Lumalive ‘Woven electronics’ fabric platform Photo: Philips |
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25.5 x 17 cm, 300 dpi, 1459 KB
Lumalive Philips Lumalive ‘Woven electronics’ fabric platform Photo: Philips |
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25.5 x 17 cm, 300 dpi, 1114 KB
Lumalive Philips Lumalive for eye-catching event marketing Photo: Philips |
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17 x 25.5 cm, 300 dpi, 1090 KB
Lumalive Lumalive for product promotions or brand campaign Photo: Philips |
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17 x 25.5 cm, 300 dpi, 984 KB
Lumalive Lumalive can show text, graphics and animations in full color Photo: Philips |
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25.5 x 17 cm, 300 dpi, 1176 KB
Lumalive Philips Lumalive at Events attracts attention at events Photo: Philips |
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25.5 x 17 cm, 300 dpi, 1208 KB
Lumalive Rabin Bhattacharya - Chief Scientist, Philips Lumalive Photo: Philips |
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15 x 15 cm, 300 dpi, 666 KB
Materials Research Philips Research focuses its materials research on the cross-roads of new materials, processing and device architecture. Photo: Philips |
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14 x 17.5 cm, 300 dpi, 307 KB
Mirror Display Mirror TV, a versatile 17-, 23- or 30-inch LCD display integrated into a mirror. Mirror TV was invented in the HomeLab and is now a successful Philips product on the market. Photo: Philips |
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17 x 14 cm, 300 dpi, 343 KB
Mirror Display Mirror TV, a versatile 17-, 23- or 30-inch LCD display integrated into a mirror. Mirror TV was invented in the HomeLab and is now a successful Philips product on the market. Photo: Capital |
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22 x 11 cm, 300 dpi, 630 KB
Mirror Display A rear-view mirror for cars, combining a mirror display with a camera that captures the hidden area. Photo: Philips |
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15 x 12 cm, 300 dpi, 531 KB
Mirror Display Watching the news in a bathroom mirror display. Photo: Philips |
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10.5 x 7.5 cm, 300 dpi, 192 KB
Silicon nanowires Philips has invented a new method to produce silicon nanowires with much greater efficiency. Electrochemical etching of a pre-indented silicon wafer results in the formation of pores. Under the right conditions, silicon nanowires remain at the points where three pores merge. The new technique yields over 4 billion wires in a single etch step. Silicon nanowires could be used in field emission displays or new types of sensing devices. Photo: Philips |
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7.5 x 7.5 cm, 300 dpi, 146 KB
NanoLEDs Nanowires of indium phosphide (InP) are well suited for miniature light-emitting diodes (LEDs) in the yellow and green colour range. The LED is obtained by introducing a junction between differently doped regions within a wire. NanoLEDs are promising for light-emitting displays, integrated optics for communications purposes or light sources. Photo: Philips |
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11 x 7 cm, 300 dpi, 129 KB
Quantum dot composites Particles of inorganic semiconducting material with nanometer scale dimensions ("quantum dots") exhibit size-dependent electronic and optical properties which are different from those of bulk solids. Philips is investigating quantum dots in composites with polymers to combine the favourable properties of inorganic materials with those of polymers. These materials could be used as light-emitting diodes (LEDs) of which the colour is determined by the size of the quantum dots. Photo: Philips |
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20 x 6.5 cm, 300 dpi, 597 KB
Carbon nanotube field emitters for microscopes Images taken by a transmission electron microscope (TEM), of an individual carbon nanotube mounted on a tungsten tip. In a), the end of the tungsten tip (dark) and the complete nanotube (light) can be seen. Picture b) shows the apex of the nanotube under larger magnification. The apex has a radius of just 2.7 nanometers. Photo: Philips |
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8 x 8 cm, 300 dpi, 357 KB
Carbon nanotube field emitters for microscopes An individual carbon nanotube (multiwalled type) molecule is mounted on a tungsten tip and is used as the electron source of a scanning electron microscope. An electron beam drawn from the extremely small apex of the carbon nanotube has a high current and small energy spread, which can be used to increase the resolution of the microscope. The pictures are transmission electron microscope images of the carbon nanotube on the tungsten tip at several magnifications. Photo: Philips |
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8.5 x 8 cm, 300 dpi, 177 KB
Liquid Crystal Helix structures By controlling the pitch of helically shaped structures of liquid crystals, light reflection in a controlled wavelength is obtained. This can be used to increase the brightness and power consumption of displays. Philips Research, together with the Eindhoven University of Technology and the University of Alberta, Canada, has developed world-leading technologies to these structures of liquid-crystals with precisely controlled 3-D dimensions. Photo: Philips |
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17 x 17 cm, 300 dpi, 1118 KB
Bulk Acoustic Wave filters Measuring the performance of a BAW filter sample. Photo: Philips |
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17 x 17 cm, 300 dpi, 1089 KB
Bulk Acoustic Wave filters Sample of a BAW filter shown on top of a mobile-phone displays, showing its small dimensions. Photo: Philips |
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11 x 9 cm, 300 dpi, 379 KB
Bulk Acoustic Wave filters Philips' new BAW filter technology allows wafer-scale production of finished devices. Example shows 1 x 1.3 mm² GSM 1900 filter in a chip-scale package. Photo: Philips |
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17 x 17 cm, 300 dpi, 1151 KB
Passive integration Measuring the performance of complex integrated discretes modules. Photo: Philips |
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17 x 17 cm, 300 dpi, 1000 KB
Passive integration Replacing part of the Surface-Mount Components used in many circuits by integrated solutions, results in large savings of printed-circuit board area, as demonstrated by this chip-scale packaged device displayed on the keyboard of a mobile phone. Photo: Philips |
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6 x 4 cm, 300 dpi, 230 KB
Passive integration Micro Electro-Mechanical System capacitor. Microscope image of an example of MEMS capacitor fabricated by the PASSI™ process. Photo: Philips |
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13 x 8 cm, 300 dpi, 551 KB
Passive integration Schematic of a Pit Capacitor. Deep trenches in the substrate increase the surface area leading to higher capacitance values. Photo: Philips Photo: Philips |
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12 x 17 cm, 300 dpi, 578 KB
Personal Connectivity In the Active Digital Aura concept, sensors automatically recognize people as they are brought close to their skin, allowing intuitive personalized applications. Photo: Philips |
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16 x 15 cm, 300 dpi, 1002 KB
Personal Connectivity Communication between a car and its environment can greatly improve the driver’s anticipation to traffic conditions and hazards. Photo: Philips |
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5 x 4 cm, 300 dpi, 150 KB
Personal Connectivity The image shows the main page of the user interface screen. Photo: Philips |
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24 x 18 cm, 300 dpi, 1371 KB
Personal Connectivity The Distance Learning end user system consists of a TV with set-top box operated with a remote control. The system has been designed for easy operation. Photo: Philips |
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20 x 16 cm, 300 dpi, 661 KB
Personal Connectivity Connectivity allows digital content to be viewed on a variety of portable and fixed devices. Photo: Philips |
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20 x 20 cm, 300 dpi, 1204 KB
Personal Connectivity Sharing content in different mobile devices. Photo: Philips |
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18 x 13 cm, 300 dpi, 140 KB
Personal Connectivity The Electronic Ceramics group of the Philips Research Laboratories in Aachen, Germany has developed a new, miniaturized antenna for mobile communications. The Philips miniaturized antennas are about eight times smaller than conventional antennas but achieve the same performance. The development plays an essential role for future mobile telecoms applications, such as the wristwatch with a monitor-equipped telephone. In the past such applications were limited especially by the physical parameters of the antennas. The new miniature antennas could be brought to manufacturing standards thanks to the development of special hightech ceramics. Photo: Philips |
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25 x 17 cm, 300 dpi, 1422 KB
Plastic RFID chip Scientists at Philips Research have developed a plastic RFID chip that is as thin as paper and no larger than a postage stamp. Photo: Philips |
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25 x 17 cm, 300 dpi, 1464 KB
Plastic RFID chip Philips’ plastic-electronics-based RFID tag is capable of transmitting multi-bit digital identification codes at 13.56 MHz, the dominant industry-standard radio frequency for RFID tag applications. Photo: Philips |
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13 x 17 cm, 300 dpi, 895 KB
Polymer memory Electrical characterization of a polymer memory device. Photo: Philips |
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17 x 12 cm, 300 dpi, 860 KB
Polymer memory Electrical characterization of a polymer memory device. Photo: Philips |
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20 x 20 cm, 300 dpi, 823 KB
Electroluminescence Philips and the University of Amsterdam have invented the first electroluminescent material that produces either pure red or pure green light, depending on the voltage applied to it. Here the optical properties of the material are analysed. Photo: Philips |
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20 x 20 cm, 300 dpi, 730 KB
Electroluminescence Philips and the University of Amsterdam have invented the first electroluminescent material that produces either pure red or pure green light, depending on the voltage applied to it. Here the dynamic properties of the material are analysed. Photo: Philips |
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20 x 20 cm, 300 dpi, 743 KB
Electroluminescence Philips and the University of Amsterdam have invented the first electroluminescent material that produces either pure red or pure green light, depending on the voltage applied to it. Here the dynamic properties of the material are analysed. Photo: Philips |
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15 x 20 cm, 300 dpi, 953 KB
Polymer Electronics Laboratory set-up to characterize the electric properties of polymer electronic circuits. The picture on the oscilloscope shows the output characteristics of ambipolar organic transistors: transistors that conduct both electrons and holes. The scientist is Dr Eduard Meijer, who received the Else Kooi award 2003 for his PhD research on this topic. Photo: Philips |
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15 x 20 cm, 300 dpi, 792 KB
Polymer Electronics Laboratory set-up to characterize the electric properties of polymer electronic circuits. The scientist is Dr Eduard Meijer, who received the Else Kooi award 2003 for his PhD research on this topic. Photo: Philips |
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14 x 10.5 cm, 300 dpi, 614 KB
Polymer Electronics Laboratory set-up to characterize the electric properties of polymer electronic circuits. The inset shows the output characteristics of ambipolar organic transistors: transistors that conduct both electrons and holes. Photo: Philips |
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12.5 x 12.5 cm, 300 dpi, 523 KB
Polymer Electronics Flexible 6-inch polyimide foil with a variety of components and electronic test circuits. The circuits still operate when the foil is sharply bent. Photo: Philips |
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12.5 x 12 cm, 300 dpi, 689 KB
Polymer Electronics Complete radio-frequency identification transponder integrated on an antitheft sticker. Photo: Philips |
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17 x 13 cm, 300 dpi, 879 KB
System-in-Package Small System-in-Package modules, each containing specific functionality, allow a building block approach to prototyping Small Autonomous Network Devices. Photo: Philips |
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17 x 17 cm, 300 dpi, 832 KB
Biosensors A magnetic biochip measurement setup. Photo: Philips |
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17 x 12 cm, 300 dpi, 539 KB
Fluid Focus (A) Schematic cross section of the FluidFocus lens principle. (B) When a voltage is applied, charges accumulate in the glass wall electrode and opposite charges collect near the solid/liquid interface in the conducting liquid. The resulting electrostatic force lowers the solid/liquid interfacial tension and with that the contact angle ? and hence the focal distance of the lens. (C) to (E) Shapes of a 6-mm diameter lens taken at different applied voltages. Photo: Philips |
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17 x 17 cm, 300 dpi, 1302 KB
Fluid Focus Researchers show the miniature variable lens and the camera that contains the lens. Photo: Philips |
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13 x 13 cm, 300 dpi, 866 KB
Ubiquitous Connectivity Ad-hoc networking allows devices and services to get connected in an intuitive way, without the need for administration. Our solutions maximize the user benefits by bridging networking technologies and semantically filtering opportunities matching a user’s profile. Photo: Philips |
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20 x 20 cm, 300 dpi, 577 KB
Ubiquitous Connectivity Personal healthcare: An ECG data format based on XML allows exchange of data across different devices. Photo: Philips |
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9.5 x 11 cm, 300 dpi, 895 KB
Wireless Connectivity With an NFC (near field communication) enabled mobile phone, you pay for concert or movie tickets at the box office simply by holding your phone next to the payment terminal. Photo: Philips |
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17 x 12 cm, 300 dpi, 664 KB
Wireless Connectivity NFC allows secure wireless communication between devices by just bringing them in each other’s vicinity. In this application example NFC provides secure payment for online-services via an NFC-enabled PC interface. Photo: Philips |
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17 x 12.5 cm, 300 dpi, 1004 KB
Wireless Connectivity Short-range wireless communication systems will enable transmission of audio/video content between consumer devices or connectivity between bandwidth-hungry home applications and their sources at increasingly higher rates. Photo: Philips |
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12 x 8 cm, 300 dpi, 775 KB
Wireless Connectivity 3G mobile technologies offer high-performance services and applications to mobile-phone users. Photo: Philips |
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20 x 12 cm, 300 dpi, 308 KB
Wireless Connectivity The optimal wireless standard solution depends on data-rate and the distance between involved devices. Although the picture is a snapshot of today's situation and may look different in the future, the heterogeneous mix of standards will remain. Photo: Philips |
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20 x 13 cm, 300 dpi, 813 KB
Wireless Connectivity Wireless connectivity: measuring the performance of a dual-mode (GSM/UMTS) prototype. Photo: Philips |
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