Abstract: A method of forming a lithium coating on a substrate, the method comprising: melting a solid lithium target to form a molten lithium target; agitating the molten lithium target; vaporising at least part of the agitated molten lithium target to form a vaporised material; and condensing the vaporised material on a substrate to form a lithium coating.

Abstract: An ion source with a crucible is disclosed. In some embodiments, the crucible is disposed in one of the ends of the ions source, opposite the cathode. In other embodiments, the crucible is disposed in one of the side walls. A feed material, which may be in solid form is disposed in the crucible. In certain embodiments, the feed material is sputtered by ions and electrons in the plasma. In other embodiments, the feed material is heated so that it vaporizes. The ion source may be oriented so that the crucible is disposed in the lowest wall so that gravity retains the feed material in the crucible.

Abstract: The sputtering cathode has a tubular shape having a pair of long sides facing each other in cross-sectional shape, has a sputtering target whose erosion surface faces inward, and a magnetic circuit is provided along the sputtering target. The pair of long sides are constituted by rotary targets each having a cylindrical shape. The rotary target is internally provided with a magnetic circuit and configured to allow the flow of cooling water. The magnetic circuit is provided parallel to the central axis of the rotary target and has a rectangular cross-sectional shape having a long side perpendicular to the radial direction of the rotary target.

Abstract: Reactive sputtering in which, by ion bombardment, material is ejected from the surface of a target and transitions to the gas phase. Negative voltage pulses are applied to the target to establish electric current having a current density greater than 0.5 A/cm2 at the target surface, such that the material transitioning to the gas phase is ionized. Reactive gas flow is established and reacts with the material of the target surface. Voltage pulse duration is such that, during the pulse, the target surface where the current flows is at least partly covered most of the time with a compound composed of reactive gas and target material and, consequently, the target surface is in a first intermediate state, and this covering is smaller at the end of the voltage pulse than at the start and, consequently, the target surface is in a second intermediate state at the end of the voltage pulse.

Abstract: A method for manufacturing a surgical implant. A metal layer is deposited onto a polyaryletherketone (PAEK) substrate by generating a series of pulses using a high power impulse magnetron sputtering process. Each pulse is applied in a series of micro pulse steps comprising (i) micro pulse on steps ranging from 10 ?s to 100 ?s and (ii) micro pulse off steps ranging from 5 ?s as to 400 ?s; at a repetition frequency ranging from 50-2000 Hz with 2 micropulses to 20 micropulses per repetition, a total pulse on time ranging from 25 ?s to 800 ?s for 5 minutes to 300 minutes at averaged power ranging from 200 W to 3000 W. The series of pulses are performed in a unipolar mode or a bipolar mode.

Abstract: A method of generating a highly ionized plasma in a plasma chamber. A neutral gas is provided to be ionized in the plasma chamber at pressure below 50 Pa. At least one high energy high power electrical pulse is supplied with power equal or larger than 100 kW and energy equal or larger than 10 J, to at least one magnetron cathode in connection with a target in the plasma chamber. A highly ionized plasma is produced directly from the neutral gas in a plasma volume such that the plasma volume cross section increases during a current rise period. Atoms are sputtered from the target with the highly ionized plasma. At least part of the sputtered atoms are ionized.

Abstract: An apparatus for generating energetic particles and application of coatings in a vacuum comprising a plasma duct surrounded by a magnetic deflecting and focusing system communicating with a primary cathodic arc plasma source in a cathode chamber and a distal anode in a coating chamber. A coating chamber comprises a substrate holder off of an optical axis of the plasma source. A set of baffles are installed along the walls of cathode chambers and the plasma duct not occupied with plasma sources and in some embodiments across the plasma stream to trap macroparticles and neutrals. A plasma duct has a deflecting portion with attached cathode chamber and a tunnel portion attached to the coating chamber. The deflecting system comprises a deflecting coil surrounding the cathode chamber having an off-set deflecting conductor spaced from the plasma duct. In one embodiment a magnetron source is magnetically coupled with cathodic arc source.

Abstract: A hollow cathode system, a device and a method for the plasma-assisted treatment of substrates includes at least one hollow cathode, which can be connected to a power supply. The hollow cathode includes an electrically conducting main body with an opening which is bounded by ribs, follows a spiral or meandering path and allows a gas to pass through in a direction perpendicular to a surface of the main body. Connecting bridge elements are provided on the ribs. The bridge elements serve ensure mechanical stability of the hollow cathode and optimize potential distribution of the hollow cathode. With the hollow cathode system, high treatment rates are achieved for homogeneous treatment of substrates of a large surface area with high plasma stability.

Abstract: Systems and methods are presented for a peripheral RF feed and symmetric RF return for symmetric RF delivery. According to one embodiment, a chuck assembly for plasma processing is provided. The chuck assembly includes an electrostatic chuck having a substrate support surface on a first side, a facility plate coupled to the electrostatic chuck on a second side that is opposite the substrate support surface, a peripheral RF feed configured to deliver RF power, the peripheral RF feed having a first portion contacting a periphery of the facility plate and an RF strap coupling the peripheral RF feed to an RF source.

Abstract: An electrode for forming an electrochemical cell with a substrate and a method of forming said electrode. The electrode comprises a carrier provided with an insulating layer which is patterned at a front side. Conducting material in an electrode layer is applied in the cavities of the patterned insulating layer and in contact with the carrier. A connection layer is applied at the backside of the carrier and in contact with the carrier. The periphery of the electrode is covered by the insulating material.

Abstract: A surface coating method for an orthodontic corrective bracket is provided, in which each orthodontic bracket formed of ceramic is covered with a titanium coating layer having a predetermined thickness so as to be able to minimize a frictional force and to increase surface hardness and durability while a wire fitted into slots of the brackets applies orthodontic tension to teeth. Accordingly, when the teeth are corrected using the ceramic orthodontic brackets on whose surfaces the titanium coating layer having a predetermined thickness is formed, the frictional force can be minimized while the wire fitted into the slots of the brackets is applying the orthodontic tension to the teeth, and thus it is possible to realize a tooth movement path desired by an orthodontist and to shorten a treatment period.

Abstract: Equipment for making IC shielding coating layer and a metal shielding layer of IC. The equipment comprises a base, a work support, a plurality of medium frequency magnetron targets and a plurality of multi-arc ion targets. The base comprises a chamber. The work support is disposed in the chamber and movably connected with a plurality of rotation axes. Each rotation axes comprises at least one fixture. The fixture is used to put at least one IC. Each medium frequency magnetron target and each multi-arc ion target are disposed in the chamber. The medium frequency magnetron targets and the multi-arc ion targets are used to sputter a metal material over the IC to form at least one metal shielding layer on a surface of the IC.

Abstract: Disclosed is a method and apparatus for forming a coating layer using a physical vapor deposition apparatus equipped with a sputtering apparatus and an arc ion plating apparatus, comprising: a first coating step of forming a Mo coating layer on a base material using a the sputtering apparatus and a Mo target and Ar gas; a nitrating step of forming a nitride film forming condition using an arc ion plating apparatus and Ar gas and N2 gas; a second coating step of forming a nano composite coating layer of Cr—Mo—N using the Mo target and Ar gas of the sputtering apparatus and the Ar gas, N2 gas and a Cr source of the arc ion plating apparatus at the same time; and a multi-coating step of forming a multi-layer having alternating Cr—Mo—N nano composite coating layers and Mo coating layers by revolving the base material around a central pivot.

Abstract: The invention is directed toward a method and apparatus which can be used to allow the sputter deposition of material onto at least one article to form a coating on the same. The new form of magnetron described herein allows an increase in sputter deposition rates to be achieved at higher powers and without causing damage to the coating being created. This can be achieved by improved cooling and use of a relatively high magnetic field in the magnetron while at the same time increasing the power to the magnetron by increasing the current at a rate faster than the voltage.

Abstract: Disclosed are an apparatus and a method for plasma ion implantation of a solid element, which enable plasma ion implantation of a solid element. According to the apparatus and method, a sample is placed on a sample stage in a vacuum chamber, and the inside of the vacuum chamber is maintained as a vacuum state. And, gas is supplied in the vacuum chamber, a first pulsed DC power is applied to a magnetron sputtering source so as to generate plasma ions of a solid element. The plasma ions of a solid element sputtered from the source are implanted on the surface of the sample. The first power is a pulse DC power capable of applying a high power the moment a pulse is applied while maintaining low average power. And, simultaneously with the applying of the first pulse power, a second power may be supplied to the sample stage, which is a high negative voltage pulse accelerating plasma ions of a solid element to the sample and synchronized to the pulse DC power for magnetron sputtering source.

Abstract: Nanoparticle deposition systems including one or more of: a hollow target of a material; at least one rotating magnet providing a magnetic field that controls movement of ions and crystallization of nanoparticles from released atoms; a nanoparticle collection device that collects crystallized nanoparticles on a substrate, wherein relative motion between the substrate and at least a target continuously expose new surface areas of the substrate to the crystallized nanoparticles; a hollow anode with a target at least partially inside the hollow anode; or a first nanoparticle source providing first nanoparticles of a first material and a second nanoparticle source providing second nanoparticles of a second material.

Abstract: The invention relates to apparatus and a method which allows the creation and maintenance of a closed field system in which magnetrons and/or magnet assemblies are provided in a form to create a magnetic field around an area in which the substrate to be coated is located. The method also relates to the steps of cleaning the substrates and applying an adhesive layer prior to the material which is to form the coating.

Abstract: An inner electrode for barrier film formation is an inner electrode for barrier film formation that is inserted inside a plastic container having an opening, supplies a medium gas to the inside of the plastic container, and supplies high frequency power to an outer electrode arranged outside the plastic container, thereby generating discharge plasma on the inner surface of the plastic container to form a barrier film on the inner surface of the plastic container, and that is provided with a gas supply pipe having a gas flow path to supply a medium gas and an insulating member screwed into an end portion of the gas supply pipe to be flush therewith and having a gas outlet communicated with the gas flow path.

Abstract: The present invention relates to an inductively coupled plasma processing chamber and method for a cylindrical workpiece with a three-dimensional profile, and more particularly to an inductively coupled plasma processing reactor and method for a cylindrical workpiece with a three-dimensional profile, in which the workpiece serving as an internal RF antenna is connected to an RF power source through an impedance matching network at one end, and a terminating capacitor at another end so as to achieve low plasma contamination, confine dense uniform plasma in the substrate vicinity and suppress secondary electrons emitted from the substrate, and a plasma process can be applied to a 3-D linear semiconductor device, a metal, glass, ceramic or polymer substrate having planar or 3-D structured micro or nano patterns, and the like.

Abstract: In the zinc oxide film forming apparatus (1), the deposit containing zinc oxide is formed on the conductive layer of the resin substrate (9) by electrodeposition in the deposition part (2), and the resin substrate (9) is carried to the applying part (4). Subsequently, the film forming material which is in liquid or paste form and contains particles of zinc oxide and solvent is applied onto the conductive layer, and then the solvent is removed from the film forming material on the conductive layer by volatilization. It is therefore possible to easily and efficiently form the porous zinc oxide film which has superior adhesion to the conductive layer of the resin substrate (9).

Abstract: A device for fabricating a flexible film is provided. The device includes a serving unit providing an insulation film; a main processing unit including at least one of a dust removing unit, an etching unit, a neutralizing unit, a coupling unit, a catalyst bonding unit, a plating unit, and a drying unit; an assistant power unit controlling a tension of the insulation film; a top transporter disposed at an upper part of the main processing unit; and a bottom transporter disposed at a lower part of the main processing unit, wherein the top transporter includes a squeezing unit pressing a material on the insulation film. The device can improve the quality of a flexible film by pressing the flexible film using the squeezing unit.

Abstract: A semiconductor or nonconductor vapor is generated by sputtering targets 11U, 11D in a first sputtering chamber 10, while a metal vapor is generated by sputtering targets 21U, 21D in a second sputtering chamber 20. The semiconductor or nonconductor vapor and the metal vapor are aggregated to clusters during travelling through a cluster-growing tube 32 and injected as a cluster beam to a high-vacuum deposition chamber 30, so as to deposit composite clusters on a substrate 35. The produced composite clusters are useful in various fields due to high performance, e.g. high-sensitivity sensors, high-density magnetic recording media, nano-magnetic media for transportation of medicine, catalysts, permselective membranes, optical-magnet sensors and low-loss soft magnetic materials.

Abstract: An IPVD source assembly and method is provided for supplying and ionizing material for coating a semiconductor wafer. The assembly includes a process space containing a plasma and an electrostatic chuck moveable in to and out of the process space. The chuck is configured to support the semiconductor wafer. The assembly further includes a first shield in electrical communication with a table and a second shield. The first shield is configured to shield at least a portion of the electrostatic chuck when the chuck is in the process space and the second shield is configured to shield at least a portion of a space below the electrostatic chuck and the process space. A conducting element electrically connects the second shield to the table to substantially prevent a formation of a second plasma in the space below the electrostatic chuck and the process space.

Abstract: It is an object of the present invention to provide a multi-layer coating having excellent adhesion and sliding properties, which contains a hard layer having a main component of a nitride and/or carbonitride containing one or more elements selected from the group consisting of Ti, V, Zr, Cr, Nb, Si, Al and B and a lubricating layer consisting of a metal element and molybdenum disulfide on the hard layer wherein the lubricating layer has a graded composition in which the metal element has a decreasing content from the hard layer side towards the surface and the molybdenum disulfide has an increasing content, and wherein the lubricating layer has a maximum oxygen concentration of no greater than 25 atom %.

Abstract: Embodiments of the invention contemplate the formation of a low cost flexible solar cell using a novel electroplating method and apparatus to form a metal contact structure. The apparatus and methods described herein remove the need to perform one or more high temperature screen printing processes to form conductive features on the surface of a solar cell substrate. The resistance of interconnects formed in a solar cell device greatly affects the efficiency of the solar cell. Solar cell substrates that may benefit from the invention include flexible substrates may have an active region that contains organic material, single crystal silicon, multi-crystalline silicon, polycrystalline silicon, germanium, and gallium arsenide, cadmium telluride, cadmium sulfide, copper indium gallium selenide, copper indium selenide, gallilium indium phosphide, as well as heterojunction cells that are used to convert sunlight to electrical power.

Abstract: An exemplary configurable vacuum system is provided for use in coating or plating that provides the capability and versatility to handle substrates of significantly different shapes and sizes. The configurable vacuum system includes a vacuum table assembly, a mechanical drive, an electrical feed through, a filament, and a vacuum chamber. The vacuum table assembly may include a support frame, a sliding means, such as a roller or rollers, an insulated surface, and a platform operable to rotate and support the substrate. The mechanical drive is operable to rotate the platform, the electrical feed through provides an electrical signal to the substrate, and the filament is positioned relative the substrate. The vacuum chamber includes a main opening, an internal volume, and a receiving means, such as a railing or member, operable to receive and support the vacuum table assembly within the internal volume of the vacuum chamber and through the sliding means of the vacuum table assembly.

Abstract: A method of manufacturing an object in a vacuum treatment apparatus having a vacuum recipient for containing an atmosphere, includes the steps of supporting a substrate on a work piece carrier arrangement in the recipient and treating the substrate to manufacture the object in the vacuum recipient. The treating process includes generating electrical charge carriers in the atmosphere and in the recipient which are of the type that form electrically insulating material and providing at least two electroconductive surfaces in the recipient. Power, such as a DC signal, is supplied to at least one of the electroconductive surfaces so that at least one of the electroconductive surfaces receives the electrically insulating material for covering at least part of that electroconductive surface. This causes electrical isolation of that electroconductive surface which leads to arcing and damage to the object.

Abstract: An exemplary mobile plating system is provided for performing a plating process using virtually any known or available deposition technology for coating or plating as substrate. The mobile plating system may include a vacuum chamber positioned in a mobile storage volume, an external vacuum pump, and a control circuitry to control the operation of some or all of the operations of the external vacuum pump. The external vacuum pump is positioned in the mobile storage volume when the mobile plating system is in transit, and is positioned external to the mobile storage volume when the mobile plating system is stationary and in operation. The external vacuum pump may be mounted on a skid, and, in operation, the external vacuum pump couples with the vacuum chamber to assist with producing a desired pressure in the vacuum chamber.

Abstract: We disclose a method of applying a sculptured layer of material on a semiconductor feature surface using ion deposition sputtering, wherein a surface onto which the sculptured layer is applied is protected to resist erosion and contamination by impacting ions of a depositing layer. A first protective layer of material is deposited on a substrate surface using traditional sputtering or ion deposition sputtering, in combination with sufficiently low substrate bias that a surface onto which the layer is applied is not eroded away or contaminated during deposition of the protective layer. Subsequently, a sculptured second layer of material is applied using ion deposition sputtering at an increased substrate bias, to sculpture a shape from a portion of the first protective layer of material and the second layer of depositing material. The method is particularly applicable to the sculpturing of barrier layers, wetting layers, and conductive layers upon semiconductor feature surfaces.

Abstract: When ion beam 14 is irradiated onto a substrate 2 to conduct processing such as ion injection, plasma 30 emitted from a plasma generating device 20 is supplied to a portion close to the substrate 2 to suppress electric charging on a substrate surface caused by ion beam irradiation. A ratio of IE/IB is kept at a value not lower than 1.8, a ratio of II /IE is kept at a value not lower than 0.07 and not higher than 0.7, wherein IB is an electric current of the ion beam 14 irradiated onto the substrate 2, II is an ion current expressing a quantity of ions in the plasma 30 emitted from the plasma generating device 20, and IE is an electron current expressing a quantity of electrons in the plasma 30.

Abstract: An exemplary method for using a mobile plating system is provided that includes locating the mobile plating system at a desired location for plating, positioning an external vacuum pump from an interior position of a mobile storage volume of the mobile plasma plating system to an exterior position, and coupling the external vacuum pump to a vacuum chamber within the mobile storage volume of the mobile plasma plating system using a flexible piping segment, rigid coupling with a dampening effect, or other arrangement operable to reduce and/or eliminate the mechanical vibrations within the vacuum chamber due to the operation of the external vacuum pump.

Abstract: An exemplary mobile plating system is provided for performing a plating process using virtually any known or available deposition technology for coating or plating as substrate. The mobile plating system may include a vacuum chamber positioned in a mobile storage volume, an external vacuum pump, and a control circuitry to control the operation of some or all of the operations of the external vacuum pump. The external vacuum pump is positioned in the mobile storage volume when the mobile plating system is in transit, and is positioned external to the mobile storage volume when the mobile plating system is stationary and in operation. The external vacuum pump may be mounted on a skid, and, in operation, the external vacuum pump couples with the vacuum chamber to assist with producing a desired pressure in the vacuum chamber.

Abstract: An apparatus for automatically cleaning a mask applied to a mask cleaning step after an evaporation process. An RF plasma is used to clean the mask. By isolating the RF plasma generator, the wafer table and the mask table from the grounded reaction chamber, the RF voltage is supplied to the wafer table and the mask table. The bias generated by the RF voltage during evaporation process can thus be reduced to enhance the efficiency of evaporation. After removing the wafer being performed with the evaporation process, the RF plasma can be used to clean the mask. The mask can thus be fixed on the mask table without being removed or renewing the mask table.

Abstract: An exemplary configurable vacuum system and method are provided for use in coating or plating that provides the capability to handle substrates of significantly different shapes and sizes. The configurable vacuum system includes a vacuum table assembly and a vacuum chamber. The vacuum table assembly may include a support frame, an insulated surface, a mechanical drive mounted to the support frame, an electrical feed through mounted to the support frame, a filament positioned above the insulated surface between a first filament conductor and a second filament conductor, a filament power connector electrically coupled to the first filament conductor through a first filament power contact pad of the filament power connector and to the second filament conductor through a second filament power contact pad of the filament power connector, and a platform operable to support the substrate.

Abstract: Methods, systems and computer program products for controlling plating pulse rectifiers are provided by identifying one of the plurality of plating pulse rectifiers as a master plating pulse rectifier and identifying at least one of the plurality of plating pulse rectifiers, other than the master plating pulse rectifier, as a slave plating pulse rectifier. A recipe comprising a pulse pattern is downloaded to the master plating pulse rectifier and the slave plating pulse rectifier. A synchronization signal is transmitted from the master plating pulse rectifier upon initiating the pulse pattern of the recipe to the at least one slave plating pulse rectifier so as to cause the slave plating pulse rectifier to initiate the pulse pattern of the downloaded recipe. Plating pulse rectifiers suitable for use as master/slave plating pulse rectifiers and systems incorporating such plating pulse rectifiers are also provided.

Abstract: An exemplary mobile plating system and method are provided for performing a plating process using virtually any known or available deposition technology for coating or plating. The mobile plating system may include a vacuum chamber positioned in a mobile storage volume, an external vacuum pump, and a control module to control the operation of some or all of the operations of the external vacuum pump. The external vacuum pump is positioned in the mobile storage volume when the mobile plating system is in transit, and is positioned external to the mobile storage volume when the mobile plating system is stationary and in operation. The external vacuum pump may be mounted on a skid, and, in operation, the external vacuum pump couples with the vacuum chamber to assist with producing a desired pressure in the vacuum chamber.

Abstract: A Raman spectrum of a thin film which must be formed is measured in a thin-film forming step for forming the thin film on a member to be processed in an atmosphere, the pressure of which has been reduced. Moreover, the conditions under which the thin film is formed are controlled in accordance with a result of measurement of the Raman spectrum. At this time, the measurement of the Raman spectrum is continuously performed in an in-line manner while the thin film is being continuously formed on the elongated-sheet-like member to be processed. The measurement of the Raman spectrum is performed while the focal point of a probe of a Raman spectrometer is being controlled with respect to the member to be processed or while the output of a laser beam from the Raman spectrometer is being controlled. The thin film which must be. formed is, for example, a protective film of a magnetic recording medium. The protective film is, for example, a hard carbon film (a DLC film).

Abstract: A plasma CVD apparatus comprising a substantially enclosed reaction chamber containing substrate holding means and a cathode electrode arranged therein, wherein a high frequency power from a high frequency power source is supplied to said cathode electrode to generate plasma between said substrate holding means having a subtrate positioned thereon and said cathode electrode whereby plasma-processing said substrate, characterized in that said cathode electrode comprises a plurality of conductor members situated on substantially the same axis which are capacitively coupled by a dielectric member. A plasma-processing method using said cathode electrode.

Abstract: A correction mechanism including a magnetic body (51) is placed at a position between a vacuum chamber (21) and a steering coil (23) and where line of magnetic force generated from the steering coil is present, to correct torsion and/or bias of a plasma beam.

Abstract: An arc evaporator comprises: an anode; an evaporation source electrode as a cathode; and a current control unit for supplying an AC square wave arcing current across the anode and the evaporation source electrode.

Abstract: A sample table for holding a silicon substrate into which an impurity is introduced is provided in the lower portion of a vacuum chamber. A high frequency power source is connected to the sample table through a coupling capacitor. The high frequency power source has a self-bias of 500 V, for example. Gas introducing means for introducing a sputtering gas such as an argon gas is provided on the bottom of the vacuum chamber. A solid target which contains an impurity which should be introduced, for example, boron is provided in the upper portion of the vacuum chamber.

Abstract: In ion plating in which a substrate is held on a substrate holder placed in an evacuated vacuum chamber and plasma is generated in the vacuum chamber to be formed into a film, a bias voltage composed of a negative bias component having a predetermined negative voltage value for a predetermined output time and a pulse bias component corresponding to a pulse output having a constant positive value for a predetermined time and output with a cycle set in the rage of 1 kHz-1 GHz is supplied to the inside of the vacuum chamber through the substrate holder by a power supply unit.

Abstract: A method and apparatus for radiation of ions from an ion source 4 onto a surface of an objective substrate T and vacuum evaporation of a predetermined material from an evaporation source 5 onto the surface of the substrate, simultaneously while the substrate is continuously moved. The ion radiation from the ion source 4 is applied to a portion of a region reached by the evaporation material from the evaporation source 5, upstream relative to the direction of movement of the substrate from the center of that region and which is lower in evaporation speed than the center of the region, to thereby continuously form a mixture layer of substrate material atoms and evaporation material atoms on the surface of the substrate and then continuously form a vacuum evaporation film with a predetermined thickness on the mixture layer.

Abstract: When a thin film is formed on a flexible and filmy substrate by a vapor phase method, the substrate is prevented from warping to be caused by the internal stress remaining in the thin film. When the thin film is formed by the vapor phase method, the substrate is previously curved so that the stress acts in the direction canceling the internal stress remaining in the thin film to be formed prior to the filming. Accordingly, the stress of the curved substrate cancels out the stress remaining in the thin film formed on the substrate. The substrate having a thin film formed thereon is not warped, the stress in the interface between the thin film formed and the substrate is removed, and the thin film has no cracks to be caused by the stress.

Abstract: A cooling structure and a reinforcing structure are described for use with a radio-frequency coil in an ionized physical vapor deposition apparatus. The cooling structure includes a portion for carrying coolant and is proximate to the RF coil along the outer circumference thereof. The cooling structure is shaped relative to the RF coil so that thermal expansion of the RF coil brings the RF coil into close contact with the cooling structure, thereby facilitating heat transfer from the RF coil to the coolant. The reinforcing structure is similarly shaped, and may be integrated with the cooling structure. In addition, the RF coil or cooling/reinforcing structure may be mounted to the wall of the process chamber with telescoping mounting posts, which permit the RF coil to maintain its shape while undergoing thermal expansion. The parasitic inductance of the RF coil leads is reduced by arranging those leads coaxially, thereby minimizing power losses in the RF coil.

Abstract: An impurity solid including boron as impurity and a solid sample to which boron is introduced are held in a vacuum chamber. Ar gas is introduced into the vacuum chamber to generate plasma composed of the Ar gas. A voltage allowing the impurity solid to serve as a cathode for the plasma is applied to the impurity solid and the impurity solid is sputtered by ions in the plasma, thereby mixing boron included in the impurity solid into the plasma composed of Ar gas. A voltage allowing the solid sample to serve as a cathode for the plasma is applied to the solid sample, and boron mixed into the plasma is introduced to the surface portion of the solid sample.

Abstract: A plasma doping apparatus includes a hollow cathode to increase throughput and uniformity of ion implantations in a target. The hollow cathode is located adjacent an anode and a target cathode on which a target is placed. An ionizable gas is provided in a space between the anode and the target cathode. The space in which the ionizable gas is provided is surrounded by the hollow cathode. The hollow cathode has either a circular or rectangular cross-section.