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Hardness Tester - Rockwell - Brinell - Vickers - Leeb - Microhardness - Universal - AGS-TECH Inc. - New Mexico - USA Тестери за цврстина AGS-TECH Inc. stocks a comprehensive range of hardness testers including ROCKWELL, BRINELL, VICKERS, LEEB, KNOOP, MICROHARDNESS TESTERS, UNIVERSAL HARDNESS TESTER, PORTABLE HARDNESS TESTING INSTRUMENTS, optical systems and software for measurement, data acquisition and analysis, test blocks, indenters, anvils and related accessories. Some of the brand name hardness testers we sell are BUEHLER, ELCOMETER, MITECH, SADT, SINOAGE, SINOWON ..... You can purchase brand new, refurbished or used equipment from us. Simply choose the product from the following catalogs and provide us the brand name and model of your choice: BUEHLER Hardness Testing Catalog ELCOMETER Inspection Equipment Catalog (does offer Physical Test Equipment , Concrete Inspection Equipment, Concrete Test Hammers , Hardness & Scratch Resistance Testers ) MITECH MH600 P ortable Hardness Tester MITECH Hardness Testers P roduct Comparison Table MITUTOYO Hardness Testing Machines SADT-SINOAGE B rand M etrology and T est E quipment Catalog SINOWON Rockwell Hardness Tester SINOWON Portable Ultrasonic Hardness Tester One of the most common tests for assessing the mechanical properties of materials is the hardness test. Hardness of a material is its resistance to permanent indentation. One may also say hardness is a material’s resistance to scratching and to wear. There are several techniques to measure the hardness of materials using various geometries and materials. The measurement results are not absolute, they are more of a relative comparative indicator, because the results depend on the shape of the indenter and the applied load. Our portable hardness testers can generally run any hardness test listed above. They can be configured for particular geometric features and materials such as hole interiors, gear teeth…etc. Let us briefly go over the various hardness test methods. BRINELL TEST : In this test, a steel or tungsten carbide ball with 10 mm diameter is pressed against a surface with a load of 500, 1500 or 3000 Kg force. Brinell hardness number is the ratio of the load to the curved area of indentation. A Brinell test leaves behind different types of impressions on the surface depending on the tested material’s condition. For example, on annealed materials a rounded profile is left behind whereas on cold-worked materials we observe a sharp profile. Tungsten carbide indenter balls are recommended for Brinell hardness numbers higher than 500. For harder workpiece materials a 1500 Kg or 3000 Kg load is recommended so that the impressions left behind are sufficiently large for accurate measurement. Because of the fact that impressions made by the same indenter at different loads are not geometrically similar, the Brinell hardness number depends on the load used. Therefore one should always note the load employed on the test results. Brinell test is well suited for materials between low to medium hardness. ROCKWELL TEST : In this test the depth of penetration is measured. The indenter is pressed on the surface initially with a minor load and then a major load. The difference in the penetration debth is a measure of hardness. Several Rockwell hardness scales exist employing different loads, indenter materials and geometries. The Rockwell hardness number is read directly from a dial on the testing machine. For example, if the hardness number is 55 using the C scale, it is written as 55 HRC. VICKERS TEST : Sometimes also referred to as the DIAMOND PYRAMID HARDNESS TEST, it uses a pyramid-shaped diamond indenter with loads ranging from 1 to 120 Kg. The Vickers hardness number is given by HV=1.854P / square L. The L here is the diagonal length of the diamond pyramid. The Vickers test gives basically the same hardness number regardless of the load. The Vickers test is suitable for testing materials with a wide range of hardness including very hard materials. KNOOP TEST : In this test, we use a diamond indenter in the shape of an elongated pyramid and loads between 25g to 5 Kg. The Knoop hardness number is given as HK=14.2P / square L. Here the letter L is the length of the elongated diagonal. The size of indentations in Knoop tests is relatively small, in the range of 0.01 to 0.10 mm. Due to this small number surface preparation for the material is very important. Test results should cite the load applied because the hardness number obtained depends on the applied load. Because light loads are used, the Knoop test is considered a MICROHARDNESS TEST. The Knoop test is therefore suitable for very small, thin specimens, brittle materials such as gemstones, glass and carbides, and even for measuring the hardness of individual grains in a metal. LEEB HARDNESS TEST : It is based on rebound technique measuring the Leeb hardness. It is an easy and industrially popular method. This portable method is mostly used for testing sufficiently large workpieces above 1 kg. An impact body with a hard metal test tip is propelled by spring force against the workpiece surface. When the impact body hits the workpiece, surface deformation takes place which will result in loss of kinetic energy. Velocity measurements reveal this loss in kinetic energy. When the impact body passes coil at a precise distance from the surface, a signal voltage is induced during the impact and rebound phases of the test. These voltages are proportional to the velocity. Using electronic signal processing one gets the Leeb hardness value from display. Our PORTABLE HARDNESS TESTERS from SADT / HARTIP HARDNESS TESTER SADT HARTIP2000/HARTIP2000 D&DL : This is an innovative portable Leeb hardness tester with newly patented technology, which makes HARTIP 2000 a universal angle (UA) impact direction hardness tester. There is no need to set up impact direction when taking measurements at any angle. Therefore, HARTIP 2000 offers a linear accuracy compared to the angle compensating method. HARTIP 2000 is also a cost saving hardness tester and has many other features. The HARTIP2000 DL is equipped with SADT unique D and DL 2-in-1 probe. SADT HARTIP1800 Plus/1800 Plus D&DL : This device is an advanced state-of-the-art palm sized metal hardness tester with many new features. Using a patented technology, SADT HARTIP1800 Plus is a new generation product. It has a high accuracy of +/-2 HL (or 0.3% @HL800) with high contract OLED display and wide environmental temperature range (-40ºC~60ºC). Apart from huge memories in 400 blocks with 360k data, HARTIP1800 Plus can download measured data to PC and printout to mini-printer by USB port and wirelessly with internal blue-tooth module. The battery can be charged simply from USB port. It has a customer re-calibration and statics function. HARTIP 1800 plus D&DL is equipped with two-in-one probe. With unique two-in-one probe, HARTIP1800plus D&DL can convert between probe D and probe DL simply by changing impact body. It’s more economical than buying them individually. It has the same configuration with HARTIP1800 plus except two-in-one probe. SADT HARTIP1800 Basic/1800 Basic D&DL : This is a basic model for HARTIP1800plus. With most of core functions of HARTIP1800 plus and a lower price, HARTIP1800 Basic is a good choice for the customer with limited budget. HARTIP1800 Basic also can be equipped with our unique D/DL two-in-one impact device. SADT HARTIP 3000 : This is an advanced hand-held digital metal hardness tester with high accuracy, wide measurement range and ease of operation. It is suitable for testing the hardness of all metals especially on site for large structural and assembled components, which are widely used in the power, petrochemical, aerospace, automotive and machine building industries. SADT HARTIP1500/HARTIP1000 : This is an integrated handheld metal hardness tester that combines impact device (probe) and processor into one unit. The size is much smaller than the standard impact device, which allows HARTIP 1500/1000 to meet not only normal measurement conditions, but also can take measurements at narrow spaces. HARTIP 1500/1000 is suitable for testing the hardness of almost all ferrous and nonferrous materials. With its new technology, its accuracy is improved to a higher level than the standard type. HARTIP 1500/1000 is one of the most economic hardness testers in its class. BRINELL HARDNESS READING AUTOMATIC MEASURING SYSTEM / SADT HB SCALER : HB Scaler is an optical measuring system which can automatically measure the size of indentation from Brinell hardness tester and gives the Brinell hardness readings. All values and indentation images can be saved in PC. With the software, all values can be processed and printed out as a report. Our BENCH HARDNESS TESTER products from SADT are: SADT HR-150A ROCKWELL HARDNESS TESTER : The manually operated HR-150A Rockwell hardness tester is known for its perfection and ease of operation. This machine uses the standard preliminary test force of 10kgf and main loads of 60/100/150 kilograms while conforming to the international Rockwell standard. After each test, the HR-150A shows the Rockwell B or Rockwell C hardness value directly on the dial indicator. The preliminary test force has to be applied manually, followed by applying the main load by means of the lever at the right side of the hardness tester. After unloading, the dial indicates the requested hardness value directly with high accuracy and repeatability. SADT HR-150DT MOTORIZED ROCKWELL HARDNESS TESTER : This series of hardness testers are recognized for their accuracy and ease of operation, function entirely conforming to the international Rockwell standard. Depending on the combination of indenter type and applied total test force, a unique symbol is given to each Rockwell scale. HR-150DT and HRM-45DT feature both specific Rockwell scales of HRC and HRB on a dial. The appropriate force should be adjusted manually, using the dial on the right side of the machine. After application of the preliminary force, the HR150DT and HRM-45DT will proceed with a fullly automated testing: loading, waiting, unloading, and at the end will display the hardness. SADT HRS-150 DIGITAL ROCKWELL HARDNESS TESTER : The HRS-150 digital Rockwell hardness tester is designed for ease of use and safety of operation. It conforms with the international Rockwell standard. Depending on the combination of indenter type and applied total test force, a unique symbol is given to each Rockwell scale. The HRS-150 will automatically show your selection of a specific Rockwell scale on the LCD display, and will indicate which load is being used. The integrated autobrake mechanism allows the preliminary test force to be applied manually without the possibility of an error. After application of the preliminary force, the HRS-150 will proceed with a fully automatic test: loading, dwell time, unloading, and computation of the hardness value and its display. Connected to the included printer through an RS232 output, it’s possible to print out all results. Our BENCH TYPE SUPERFICIAL ROCKWELL HARDNESS TESTER products from SADT are: SADT HRM-45DT MOTORIZED SUPERFICIAL ROCKWELL HARDNESS TESTER : This series hardness testers are recognized for their accuracy and ease of operation, perform entirely conforming to the international Rockwell standard. Depending on the combination of indenter type and applied total test force, a unique symbol is given to each Rockwell scale. HR-150DT and HRM-45DT feature both of the specific Rockwell scales HRC and HRB on a dial. The appropriate force should be adjusted manually, using the dial on the right side of the machine. After application of the preliminary force, the HR150DT and HRM-45DT will proceed with a fullly automatic test process: loading, dwelling, unloading, and at the end will display the hardness. SADT HRMS-45 SUPERFICIAL ROCKWELL HARDNESS TESTER : HRMS-45 Digital Superficial Rockwell Hardness Tester is a novel product integrating advanced mechanical and electronic technologies. The dual display of LCD and LED digital diodes, make it an upgraded product version of the standard type superficial Rockwell tester. It measures the hardness of ferrous, nonferrous metals and hard materials, carburized and nitrided layers, and other chemically treated layers. It is also used for the measurement of hardness of thin pieces. SADT XHR-150 PLASTIC ROCKWELL HARDNESS TESTER : XHR-150 plastics Rockwell hardness tester adopts a motorized testing method, testing force can be loaded, kept at dwelling and unloaded automatically. Human error is minimized and easy to operate. It is used to measure hard plastics, hard rubbers, aluminum, tin, copper, soft steel, synthetic resins, tribologic materials, etc. Our BENCH TYPE VICKERS HARDNESS TESTER products from SADT are: SADT HVS-10/50 LOW LOAD VICKERS HARDNESS TESTER : This low load Vicker’s hardness tester with digital display is a new hi-tech product integrating mechanical and photoelectrical technologies. As a substitute for traditional small-load Vicker’s hardness testers, it features an easy operation and good reliability, which is specially designed for testing small, thin samples or parts after surface coating. Suitable for research institutes, industrial labs and QC departments, this is an ideal hardness testing instrument for research and measurement purposes. It offers integration of computer programming technology, high resolution optical measuring system and photoelectrical technique, soft key input, light source adjustment, selectable testing model, conversion tables, pressure-holding time, file number input and data saving functions. It has a big LCD screen to display the test model, test pressure, indention length, hardness values, pressure holding time and the numbers of tests. Offers also date recording, test results recording and data processing, printing output function, through an RS232 interface. SADT HV-10/50 LOW LOAD VICKERS HARDNESS TESTER : These low load Vickers hardness testers are new hi-tech products integrating mechanical and photoelectrical technologies. These testers are specially designed for testing small and thin samples and parts after surface coating. Suitable for research institutes, industrial labs and QC departments. Key features and functions are microcomputer control, adjustment of light source via soft keys, adjustment of pressure holding time and LED/LCD display, its unique measurement conversion device and unique micro eyepiece one-time measurement readout device that ensures easy use and high accuracy. SADT HV-30 VICKERS HARDNESS TESTER : The HV-30 model Vickers hardness tester is specially designed for testing small, thin samples and parts after surface coating. Suitable for research institutes, factory labs and QC departments, these are ideal hardness testing instruments for research and test purposes. Key features and functions are micro computer control, automatic loading and unloading mechanism, adjustment of lighting source via hardware, adjustment of pressure holding time (0~30s), unique measurement conversion device and unique micro eyepiece one-time measurement readout device, ensuring easy use and high accuracy. Our BENCH TYPE MICRO HARDNESS TESTER products from SADT are: SADT HV-1000 MICRO HARDNESS TESTER / HVS-1000 DIGITAL MICRO HARDNESS TESTER : This product is especially well suited for high precision hardness testing of small and thin samples such as sheet, foil, coatings, ceramic products and hardened layers. To ensure a satisfactory indentation, the HV1000 / HVS1000 features automatic loading and unloading operations, a very accurate loading mechanism and a robust lever system. The micro-computer controlled system ensures an absolutely precise hardness measurement with adjustable dwell time. SADT DHV-1000 MICRO HARDNESS TESTER / DHV-1000Z DIGITAL VICKERS HARDNESS TESTER : These micro Vickers hardness testers made with a unique and precise design are able to produce a clearer indentation and hence a more accurate measurement. By means of a 20 × lens and a 40 × lens the instrument has a wider measurement field and a broader application range. Equipped with a digital microscope, on its LCD screen it shows the measuring methods, the test force, the indentation length, the hardness value, the dwell time of the test force as well as the number of the measurements. In addition, it is equipped with an interface linked to a digital camera and a CCD video camera. This tester is widely used for measuring ferrous metals, non-ferrous metals, IC thin sections, coatings, glass, ceramics, precious stones, quench hardened layers and more. SADT DXHV-1000 DIGITAL MICRO HARDNESS TESTER : These micro Vickers hardness testers made with a unique and precise are able to produce a clearer indentation and hence more accurate measurements. By means of a 20 × lens and a 40 × lens the tester has a wider measurement field and a broader application range. With an automatically turning device ( the automatically turning turret ), the operation has become easier; and with a threaded interface, it can be linked to a digital camera and a CCD video camera. First the device lets the LCD touch screen to be used, thus allowing the operation to be more human controlled. The device has capabilities such as direct reading of the measurements, the easy change of the hardness scales, the saving of the data, the printing and the connection with the RS232 interface. This tester is widely used for measuring ferrous metals, non-ferrous metals, IC thin sections, coatings, glass, ceramics, precious stones; thin plastic sections, quench hardened layers and more. Our BENCH TYPE BRINELL HARDNESS TESTER / MULTI-PURPOSE HARDNESS TESTER products from SADT are: SADT HD9-45 SUPERFICIAL ROCKWELL & VICKERS OPTICAL HARDNESS TESTER : This device serves the purpose of measuring the hardness of ferrous, nonferrous metals, hard metals, carburized and nitrided layers and chemically treated layers and thin pieces. SADT HBRVU-187.5 BRINELL ROCKWELL & VICKERS OPTICAL HARDNESS TESTER : This instrument is used for determining the Brinell, Rockwell and Vickers hardness of ferrous, nonferrous metals, hard metals, carburized layers and chemically treated layers. It can be used in plants, scientific & research institutes, laboratories and colleges. SADT HBRV-187.5 BRINELL ROCKWELL & VICKERS HARDNESS TESTER (NOT OPTICAL) : This instrument is used for determining the Brinell, Rockwell and Vickers hardness of ferrous, non-ferrous metals, hard metals, carburized layers and chemically treated layers. It can be used in factories, scientific & research institutes, laboratories and colleges. It’s not an optical type hardness tester. SADT HBE-3000A BRINELL HARDNESS TESTER : This automatic Brinell hardness tester features a wide measurement range up to 3000 Kgf with a high accuracy conforming to DIN 51225/1 standard. During the automatic test cycle the applied force will be controlled by a closed loop system guaranteeing a constant force on the work piece, conforming to DIN 50351 standard. The HBE-3000A comes completely with a reading microscope with enlargement factor 20X and a micrometer resolution of 0.005 mm. SADT HBS-3000 DIGITAL BRINELL HARDNESS TESTER : This digital Brinell hardness tester is a new generation state-of-the-art device. It can be used to determine the Brinell hardness of ferrous and non-ferrous metals. The tester offers electronic auto loading, computer software programming, high power optical measurement, photosensor and other features. Each operational process and test result can be displayed on its large LCD screen. The test results can be printed. Device is suitable for manufacturing environments, colleges and scientific institutions. SADT MHB-3000 DIGITAL ELECTRONIC BRINELL HARDNESS TESTER : This instrument is an integrated product combining optical, mechanical and electronic techniques, adopting a precise mechanical structure and computer controlled closed-circuit system. The instrument loads and unloads the testing force with its motor. Using a 0.5% accuracy compression sensor to feedback the information and the CPU to control, the instrument compensates automatically for the varying testing forces. Equipped with a digital micro eyepiece on the instrument, the length of indentation can be measured directly. All testing data such as the test method, the test force value, the length of test indentation, the hardness value and the dwell time of testing force can be shown on the LCD screen. There is no need to input the value of the diagonal length for the indentation and no need to look up the hardness value from the hardness table. Therefore the read data is more accurate and operation of this instrument is easier. For details and other similar equipment, please visit our equipment website: http://www.sourceindustrialsupply.com КЛИКНЕТЕ Услуга за пронаоѓање на производи-локатор PREVIOUS PAGE

Glass and Ceramic Manufacturing, Hermetic Packages Seals and Bonding, Tempered Bulletproof Glass, Blow Moulding, Optical Grade Glass, Conductive Glass, Molding Формирање и обликување на стакло и керамика The type of glass manufacturing we offer are container glass, glass blowing, glass fiber & tubing & rod, domestic and industrial glassware, lamp and bulb, precision glass moulding, optical components and assemblies, flat & sheet & float glass. We perform both hand forming as well as machine forming. Our popular technical ceramic manufacturing processes are die pressing, isostatic pressing, hot isostatic pressing, hot pressing, slip casting, tape casting, extrusion, injection moulding, green machining, sintering or firing, diamond grinding, hermetic assemblies. We recommend that you click here to DOWNLOAD our Schematic Illustrations of Glass Forming and Shaping Processes by AGS-TECH Inc. DOWNLOAD our Schematic Illustrations of Technical Ceramic Manufacturing Processes by AGS-TECH Inc. These downloadable files with photos and sketches will help you better understand the information we are providing you below. • CONTAINER GLASS MANUFACTURE: We have automated PRESS AND BLOW as well as BLOW AND BLOW lines for manufacturing. In the blow and blow process we drop a gob into blank mold and form the neck by applying a blow of compressed air from top. Immediately following this, compressed air is blown a second time from the other direction through the container neck to form the pre-form of the bottle. This pre-form is then transferred to the actual mold, reheated to soften and compressed air is applied to give the pre-form its final container shape. More explicitly, it is pressurized and pushed against the walls of the blow mold cavity to take its desired shape. Finally, the manufactured glass container is transfered into an annealing oven for subsequent reheating and removal of stresses produced during the molding and is cooled in a controlled fashion. In the press and blow method, molten gobs are put into a parison mold (blank mold) and pressed into the parison shape (blank shape). The blanks are then transfered to blow molds and blown similar to the process described above under “Blow and Blow Process”. Subsequent steps like annealing and stress relieve are similar or the same. • GLASS BLOWING : We have been manufacturing glass products using conventional hand blowing as well as using compressed air with automated equipment. For some orders conventional blowing is necessary, such as projects involving glass art work, or projects that require a smaller number of parts with loose tolerances, prototyping / demo projects….etc. Conventional glass blowing involves the dipping of a hollow metal pipe into a pot of molten glass and rotating the pipe for collecting some amount of the glass material. The glass collected on the tip of the pipe is rolled on flat iron, shaped as desired, elongated, re-heated and air blown. When ready, it is inserted into a mould and air is blown. The mould cavity is wet to avoid contact of the glass with metal. The water film acts like a cushion between them. Manual blowing is a labor intensive slow process and only suitable for prototyping or items of high value, not suitable for inexpensive per piece high volume orders. • MANUFACTURING OF DOMESTIC & INDUSTRIAL GLASSWARE : Using various types of glass material a large variety of glassware is being produced. Some glasses are heat resistant and suitable for laboratory glassware whereas some are good enough for withstanding dishwashers for many times and are fit for making domestic products. Using Westlake machines tens of thousands of pieces of drinking glasses are being produced per day. To simplify, molten glass is collected by vacuum and inserted into moulds to make the pre-forms. Then air is blown into the moulds, these are transfered to another mould and air is blown again and the glass takes its final shape. Like in hand blowing, these moulds are kept wet with water. Further stretching is part of the finishing operation where the neck is being formed. Excess glass is burnt off. Thereafter the controlled re-heating and cooling process described above follows. • GLASS TUBE & ROD FORMING : The main processes we use for manufacturing of glass tubes are the DANNER and VELLO processes. In the Danner Process, glass from a furnace flows and falls on an inclined sleeve made of refractory materials. The sleeve is carried on a rotating hollow shaft or blowpipe. The glass is then wrapped around the sleeve and forms a smooth layer flowing down the sleeve and over the tip of the shaft. In the case of tube forming, air is blown through a blowpipe with hollow tip, and in the case of rod forming we use solid tips on the shaft. The tubes or rods are then drawn over carrying rollers. The dimensions like wall thickness and diameter of the glass tubes are adjusted to desired values by setting the diameter of the sleeve and blowing air pressure to a desired value, adjusting the temperature, rate of flow of glass and speed of drawing. The Vello glass tube manufacturing process on the other hand involves glass that travels out a furnace and into a bowl with a hollow mandrel or bell. The glass then goes through the air space between the mandrel and the bowl and takes the shape of a tube. Thereafter it travels over rollers to a drawing machine and is cooled. At the end of the cooling line cutting and final processing takes place. The tube dimensions can be adjusted just like in the Danner process. When comparing the Danner to Vello process, we can say that Vello process is a better fit for large quantity production whereas the Danner process may be a better fit for precise smaller volume tube orders. • PROCESSING OF SHEET & FLAT & FLOAT GLASS : We have large quantities of flat glass in thicknesses ranging from submilimeter thicknesses to several centimeters. Our flat glasses are of almost optical perfection. We offer glass with special coatings such as optical coatings, where chemical vapor deposition technique is used to put coatings such as antireflection or mirror coating. Also transparent conductive coatings are common. Also available are hydrophobic or hydrophilic coatings on glass, and coating that makes glass self-cleaning. Tempered, bulletproof and laminated glasses are yet other popular items. We cut glass into desired shape with desired tolerances. Other secondary operations such as curving or bending flat glass are available. • PRECISION GLASS MOLDING : We use this technique mostly for manufacturing precision optical components without the need for more expensive and time consuming techniques like grinding, lapping and polishing. This technique is not always sufficient for making the best of the best optics, but in some cases like consumer products, digital cameras, medical optics it can be a less expensive good option for high volume manufacturing. Also it has an advantage over the other glass forming techniques where complex geometries are required, such as in the case of aspheres. The basic process involves loading of the lower side of our mold with the glass blank, evacuation of the process chamber for oxygen removal, near closing of the mold, fast and isothermal heating of die and glass with infrared light, further closing of the mould halves to press the softened glass slowly in a controlled fashion to the desired thickness, and finally cooling of the glass and filling the chamber with nitrogen and removal of the product. Precise temperature control, mould closure distance, mould closure force, matching the coefficients of expansion of the mold and glass material are key in this process. • MANUFACTURE OF GLASS OPTICAL COMPONENTS AND ASSEMBLIES : Besides precision glass molding, there are a number of valuable processes we use for making high quality optical components and assemblies for demanding applications. Grinding, lapping and polishing of optical grade glasses in fine special abrasive slurries is an art and science for making optical lenses, prisms, flats and more. Surface flatness, waviness, smoothness and defect free optical surfaces require lots of experience with such processes. Small changes in environment can result in out of specification products and bring the manufacturing line to a stop. There are cases where a single wipe on the optical surface with a clean cloth can make a product meet the specifications or fail the test. Some popular glass materials used are fused silica, quartz, BK7. Also the assembly of such components requires specialized niche experience. Sometimes special glues are being used. However, sometimes a technique called optical contacting is the best choice and involves no material in between attached optical glasses. It consists of physically contacting flat surfaces to attach to each other without glue. In some cases mechanical spacers, precision glass rods or balls, clamps or machined metal components are being used to assemble the optical components at certain distances and with certain geometric orientations to each other. Let us examine some of our popular techniques for manufacturing high end optics. GRINDING & LAPPING & POLISHING : The rough shape of the optical component is obtained with grinding a glass blank. Thereafter lapping and polishing are carried out by rotating and rubbing the rough surfaces of the optical components against tools with desired surface shapes. Slurries with tiny abrasive particles and fluid are being poured in between the optics and the shaping tools. The abrasive particle sizes in such slurries can be chosen according to the degree of flatness desired. The deviations of critical optical surfaces from desired shapes are expressed in terms of wavelengths of the light being used. Our high precision optics have tenth of a wavelength (Wavelength/10) tolerances or even tighter is possible. Besides surface profile, the critical surfaces are scanned and evaluated for other surface features and defects such as dimensions, scratches, chips, pits, specks...etc. The tight control of environmental conditions in the optical manufacturing floor and extensive metrology and testing requirements with state-of-the-art equipment make this a challenging branch of industry. • SECONDARY PROCESSES IN GLASS MANUFACTURING: Again, we are only limited with your imagination when it comes to secondary and finishing processes of glass. Here we list some of them: -Coatings on glass (optical, electrical, tribological, thermal, functional, mechanical...). As an example we can alter surface properties of glass making it for example reflect heat so that it keeps building interiors cool, or make one side infrared absorbing using nanotechnology. This helps keep the inside of buildings warm because the outermost surface layer of glass will absorb the infrared radiation inside the building and radiate it back to the inside. -Etching on glass -Applied Ceramic Labeling (ACL) -Engraving -Flame polishing -Chemical polishing -Staining MANUFACTURING OF TECHNICAL CERAMICS • DIE PRESSING : Consists of uniaxial compaction of granular powders confined in a die • HOT PRESSING : Similar to die pressing but with the addition of temperature to enhance densification. Powder or compacted preform is placed into graphite die and uniaxial pressure is applied while the die is kept at high temperatures such as 2000 C. Temperatures can be different depending on the type of ceramic powder being processed. For complicated shapes and geometries other subsequent processing such as diamond grinding may be needed. • ISOSTATIC PRESSING : Granular powder or die pressed compacts are placed in airtight containers and then into a closed pressure vessel with liquid inside. Thereafter they are compacted by increasing the pressure vessel’s pressure. The liquid inside the vessel transfers the pressure forces uniformly over the entire surface area of the airtight container. The material is thus compacted uniformly and takes the shape of its flexible container and its internal profile and features. • HOT ISOSTATIC PRESSING : Similar to isostatic pressing, but in addition to pressurized gas atmosphere, we sinter the compact at high temperature. Hot isostatic pressing results in additional densification and increased strength. • SLIP CASTING / DRAIN CASTING : We fill the mould with a suspension of micrometer sized ceramic particles and carrier liquid. This mixture is called “slip”. The mould has pores and therefore the liquid in the mixture is filtered into the mould. As a result, a cast is formed on the inner surfaces of the mould. After sintering, the parts can be taken out of the mould. • TAPE CASTING : We manufacture ceramic tapes by casting ceramic slurries onto flat moving carrier surfaces. The slurries contain ceramic powders mixed with other chemicals for binding and carrying purposes. As the solvents evaporate dense and flexible sheets of ceramic are left behind which can be cut or rolled as desired. • EXTRUSION FORMING : As in other extrusion processes, a soft mixture of ceramic powder with binders and other chemicals is passed through a die to acquire its cross-sectional shape and is then cut at desired lengths. The process is performed with cold or heated ceramic mixtures. • LOW PRESSURE INJECTION MOLDING : We prepare a mixture of ceramic powder with binders and solvents and heat it to a temperature where it can easily be pressed and forced into the tool cavity. Once the moulding cycle is complete, the part is ejected and the binding chemical is burned off. Using injection molding, we can obtain intricate parts at high volumes economically. Holes that are a tiny fraction of a milimeter on a 10mm thick wall are possible, threads are possible without forther machining, tolerances as tight as +/- 0.5% are possible and even lower when parts are machined, wall thicknesses in the order of 0.5mm to a length of 12.5 mm are possible as well as wall thicknesses of 6.5mm to a length of 150mm. • GREEN MACHINING : Using the same metal machining tools, we can machine pressed ceramic materials while they are still soft like chalk. Tolerances of +/- 1% are possible. For better tolerances we use diamond grinding. • SINTERING or FIRING : Sintering makes full densification possible. Significant shrinkage occurs on the green compact parts, but this is not a big problem since we take into account these dimensional changes when we design the part and tooling. Powder particles are bonded together and porosity induced by the compaction process is removed to great extent.. • DIAMOND GRINDING : The World’s hardest material “diamond” is being used to grind hard materials like ceramics and precision parts are obtained. Tolerances in the micrometer range and very smooth surfaces are being achieved. Due to its expense, we only consider this technique when we really need it. • HERMETIC ASSEMBLIES are those that practically speaking do not allow any exchange of matter, solids, liquids or gases between interfaces. Hermetic sealing is airtight. For example hermetic electronic enclosures are those that keep the sensitive interior contents of a packaged device unharmed by moisture, contaminants or gases. Nothing is 100% hermetic, but when we speak of hermeticity we mean that in practical terms, that there is hermeticity to the extent that the leak rate is so low that the devices are safe under normal environmental conditions for very long times. Our hermetic assemblies consist of metal, glass and ceramic components, metal-ceramic, ceramic-metal-ceramic, metal-ceramic-metal, metal to metal, metal-glass, metal-glass-metal, glass-metal-glass, glass-metal and glass to glass and all other combinations of metal-glass-ceramic bonding. We can for example metal coat the ceramic components so they can be strongly bonded to other components in the assembly and have excellent sealing capability. We have the know-how of coating optical fibers or feedthroughs with metal and soldering or brazing them to the enclosures, so no gases pass or leak into the enclosures. Therefore they are used for manufacturing electronic enclosures to encapsulate sensitive devices and protect them from the outer atmosphere. Besides their excellent sealing characteristics, other properties such as the thermal expansion coefficient, deformation resistance, non-outgassing nature, very long lifetime, nonconductive nature, thermal insulation properties, antistatic nature...etc. make glass and ceramic materials the choice for certain applications. Information on our facility producing ceramic to metal fittings, hermetic sealing, vacuum feedthroughs, high and ultrahigh vacuum and fluid control components can be found here: Hermetic Components Factory Brochure КЛИКНЕТЕ Услуга за пронаоѓање на производи-локатор ПРЕТХОДНА СТРАНИЦА

Private Labeling, White Labeling, Private Label, White Label AGS-TECH, Inc. е ваш Производител и добавувач на приватна и бела етикета. Од нас можете да набавите производи со вашиот бренд, лого и етикета. Многу од нашите готови производи може да ви бидат испорачани со името на вашата марка на нив, за да можете веднаш да започнете со продажба и промовирање на вашиот бренд. Приватно обележување и бело означување на вашите производи If you wish, after manufacturing your products, we can PRIVATE LABEL or WHITE LABEL your products with your name, your brand name or any name you wish. Private labeling or white labeling means a product is manufactured by one company and sold under another company's brand name or some other name. Retailers often use private labeling to offer many items to their clients, expand their catalogs, and undercut competitor pricing. If your company is planning to sell products under its name or adding new products to its current spectrum, private labeling may be an excellent option for you. Private labeling allows you to outsource the sourcing, procurement, manufacturing, importing, shipping & logistics and other aspects of the supply chain to another company. Private labeling will enable you to gain access to the entire supply chain without requiring you to build your own supply network infrastructure. There is a small difference between private labeling and white labeling. The main difference is that a private label product is sold exclusively through one seller or retailer, whereas a white label product can be sold to several buyers or retailers and resold by them to final customers. We can manufacture and supply many products to you with your private label and your brand name. Thus, your customers will only know you as their supplier. If you wish, we can oversee everything from the product's specifications, packaging, labeling, marking and everything else until the product is received by you. Here is a brief list of some industrial products we can supply you with YOUR BRAND NAME on them. Below list is in alphabetical order. Abrasives Adhesives Alarm Cabling Automation & Integration Equipment Automotive Accessories Automotive Components and Parts Automotive Test Equipment, Data Logger, Bu Engine Analyzer, Bearings & Bushings Bike and Biker Accessories Cables & Cabling Car Accessories Chains Coaxial Cables Computers Connectors & Adapters Construction Tools Consumer Electronics Containers Corporate Gifts Cutting Tools Drilling Tools Electric Chargers Electric Transformers Electric Vehicle Chargers Electronic Products and Accessories Embedded Computers Endoscopes Engine Parts EV Chargers Fasteners Fiberscopes Fiberoptic Cables Fiberoptic Devices Filters & Filtration Systems Flash Storage Devices Gaskets Gears Hand Tools Hose Crimping Machines Hydraulic Products & Components Hydraulic Reservoirs Imaging Systems Industrial Supplies Interconnects Leak Testing Machine Leather Work Gear & Gloves LED Lighting Lighting Products & Accessories Lubricants & Degreasers Machines Motorcycle Parts and Accessories Optical Transceivers Packages & Packaging Materials Phototherapy Devices Photovoltaic Components and Systems Plastic Products Pneumatic Products & Components Power Tools Racks, Pinions, Splines, Gears Rigging Hardware Ropes & Cords Rubber Products Sensors Speaker Cabling Storage Devices Switches Test Equipment Tools & Hardware Transceivers Transformers (Electrical) Tube Bending Machines Tube Endforming Machine USB Drives Valves Work Tools КЛИКНИ ТУКА Кликнете овде за да го пополните нашиот формулар - БАРАЊЕ ЗА ПРОИЗВОД ОД ПРИВАТНА ИЛИ БЕЛА ознака КЛИКНИ ТУКА Кликнете овде за да отидете на нашата страница за КАТАЛОГИ НА ПРОИЗВОДИ ОД ПРИВАТНА И БЕЛА ознака КЛИКНИ ТУКА Кликнете овде за да отидете на нашата страница за ПАКУВАЊЕ И БЕЛА ЕТИКЕТИРАЊЕ И ПРОИЗВОДИ, ПОТРЕБИ, УСЛУГИ Ние сме AGS-TECH Inc., ваш единствен извор за производство и изработка и инженерство и аутсорсинг и консолидација. Ние сме најразновидниот инженерски интегратор во светот кој ви нуди сопствено производство, подсклопување, склопување на производи и инженерски услуги.

LED Assemblies, Light Emitting Diodes Power Supply, Plastic Molded Lenses LED склопови на производи LED склоп - задно светло за мотоцикл LED склопови на производи AGS-TECH Inc. склопи обликувани пластични компоненти со диоди што емитуваат светлина - задни светла за мотоцикли Задно светло на мотоцикл со вградени диоди што емитуваат светлина Водоотпорно LED напојување Моќни LED светлосни склопови Пакување на производот според барањата на клиентите AGS-TECH нуди прилагодено пакување за вашите произведени производи Собрание на LED PCB Производство на LED улично осветлување ЛЕД драјвер за затемнување на задниот раб Склопови на LED PCB LED склопови со висока моќност LED драјвер со висока моќност ПРЕТХОДНА СТРАНИЦА

Photochemical Machining - PCM - Photo Etching - Chemical Milling - Blanking - Wet Etching - CM - Sheet Metal Components Хемиска обработка и фотохемиско бланирање CHEMICAL MACHINING (CM) technique is based on the fact that some chemicals attack metals and etch them. This results in removal of small layers of material from surfaces. We use reagents and etchants such as acids and alkaline solutions to remove material from surfaces. The hardness of the material is not a factor for etching. AGS-TECH Inc. frequently uses chemical machining for engraving metals, manufacturing printed-circuit boards and deburring of produced parts. Chemical machining is well suited for shallow removal up to 12 mm on large flat or curved surfaces, and CHEMICAL BLANKING of thin sheets. The chemical machining (CM) method involves low tooling and equipment costs and is advantageous over other ADVANCED MACHINING PROCESSES for low production runs. Typical material removal rates or cutting speeds in chemical machining are around 0.025 – 0.1 mm/min. Using CHEMICAL MILLING, we produce shallow cavities on sheets, plates, forgings and extrusions, either to meet design requirements or for reduction of weight in parts. The chemical milling technique can be used on a variety of metals. In our manufacturing processes, we deploy removable layers of maskants to control the selective attack by the chemical reagent on different areas of the workpiece surfaces. In microelectronic industry the chemical milling is widely used to fabricate miniature devices on chips and the technique is referred to as WET ETCHING. Some surface damage may result from chemical milling due to preferential etching and intergranular attack by the chemicals involved. This may result in deterioration of surfaces and roughening. One has to be careful prior to deciding to use chemical milling on metal castings, welded and brazed structures because uneven material removal may occur because the filler metal or the structural material may machine preferentially. In metal castings uneven surfaces may be obtained due to porosity and non-uniformity of the structure. CHEMICAL BLANKING: We use this method to produce features that penetrate through the thickness of the material, having the material removed by chemical dissolution. This method is an alternative to stamping technique we use in sheet metal manufacturing. Also in burr-free etching of printed-circuit boards (PCB) we deploy chemical blanking. PHOTOCHEMICAL BLANKING & PHOTOCHEMICAL MACHINING (PCM): Photochemical blanking is also known as PHOTOETCHING or PHOTO ETCHING, and is a modified version of chemical milling. Material is removed from flat thin sheets using photographic techniques and complex burr-free, stress-free shapes are blanked. Using photochemical blanking we manufacture fine and thin metal screens, printed-circuit cards, electric-motor laminations, flat precision springs. The photochemical blanking technique offers us the advantage of producing small parts, fragile parts without the need to manufacture difficult and expensive blanking dies that are used in traditional sheet metal manufacturing. Photochemical blanking does require skilled personnel, but the tooling costs are low, the process is easily automated and feasibility is high for medium to high volume production. Some disadvantages exist as is the case in every manufacturing process: Environmental concerns due to chemicals and safety concerns due to volatile liquids being used. Photochemical machining also known as PHOTOCHEMICAL MILLING, is the process of fabricating sheet metal components using a photoresist and etchants to corrosively machine away selected areas. Using photo etching we produce highly complex parts with fine details economically. The photochemical milling process is for us an economical alternative to stamping, punching, laser and water jet cutting for thin gauge precision parts. The photochemical milling process is useful for prototyping and allows for easy and quick changes when there is a change in design. It is an ideal technique for research & development. Phototooling is fast and inexpensive to produce. Most phototools cost less than $ 500 and can be produced within two days. Dimensional tolerances are well met with no burrs, no stress and sharp edges. We can start manufacturing a part within hours after receiving your drawing. We can use PCM on most commercially available metals and alloys such as include aluminium, brass, beryllium-copper, copper, molybdenum, inconel, manganese, nickel, silver, steel, stainless steel, zinc and titanium with thicknesses of 0.0005 to 0.080 in (0.013 to 2.0 mm). Phototools are exposed only to light and therefore do not wear out. Due to the cost of hard tooling for stamping and fine blanking, significant volume is required to justify the expense, which is not the case in PCM. We start the PCM process by printing the shape of the part onto optically clear and dimensionally stable photographic film. The phototool consists of two sheets of this film showing negative images of the parts meaning that the area that will become the parts is clear and all of the areas to be etched are black. We register the two sheets optically and mechanically to form the top and bottom halves of the tool. We cut the metal sheets to size, clean and then laminate on both sides with a UV-sensitive photoresist. We place the coated metal between the two sheets of the phototool and a vacuum is drawn to ensure intimate contact between the phototools and the metal plate. We then expose the plate to UV light that allows the areas of resist that are in the clear sections of the film to be hardened. After exposure we wash away the unexposed resist of the plate, leaving the areas to be etched unprotected. Our etching lines have driven-wheel conveyors to move the plates and arrays of spray nozzles above and below the plates. The etchant is typically an aqueous solution of acid such as ferric chloride, that is heated and directed under pressure to both sides of the plate. The etchant reacts with the unprotected metal and corrodes it away. After neutralizing and rinsing, we remove the remaining resist and the sheet of parts is cleaned and dried. Applications of photochemical machining include fine screens and meshes, apertures, masks, battery grids, sensors, springs, pressure membranes, flexible heating elements, RF and microwave circuits and components, semiconductor leadframes, motor and transformer laminations, metal gaskets and seals, shields and retainers, electrical contacts, EMI/RFI shields, washers. Some parts, such as semiconductor leadframes, are very complex and fragile that, despite volumes in the millions of pieces, they can only be produced by photo etching. The accuracy achievable with the chemical etching process offers us tolerances starting at +/-0.010mm depending on the material type and thickness. Features can be positioned with accuracies around +-5 microns. In PCM, the most economical way is to plan the largest sheet size possible consistent with the size and dimensional tolerances of the part. The more parts per sheet are produced the lower the unit labor cost per part. Material thickness affects costs and is proportional to the length of time to etch through. Most alloys etch at rates between 0.0005–0.001 in (0.013–0.025 mm) of depth per minute per side. In general, for steel, copper or aluminum workpieces with thicknesses up to 0.020 in (0.51 mm), part costs will be roughly $0.15–0.20 per square inch. As the geometry of the part becomes more complex, photochemical machining gains greater economic advantage over sequential processes such as CNC punching, laser or water-jet cutting, and electrical discharge machining. Contact us today with your project and let us provide you our ideas and suggestions. КЛИКНЕТЕ Услуга за пронаоѓање на производи-локатор ПРЕТХОДНА СТРАНИЦА

AGS-TECH Inc Past Present Mission - We specialize in Manufacturing, Fabrication, Assembly of Products, Custom Manufacturing of Components, Parts, Subassemblies. Our Manufacturing Past & Present Mission Основани сме под името AGS-Group во 1979 година како компанија за производство на индустриски производи и градежни материјали. Во 2002 година, напредната технолошка групација се откачи како AGS-TECH Inc. што ја одразува својата мисија на полето на технологијата и се фокусира на процесите на производство и изработка со поголема додадена вредност. Ние се држиме во првите редови на технологијата во областите на прилагодено производство на калапи и матрици, обликување на пластични и гумени делови, CNC обработка на метални и легирани делови, обработка на пластика, ковање и лиење метал, техничко формирање и обликување на керамика и стакло, печат и изработка на лим, производство на машински елементи, електронски компоненти и склопови, изработка и монтажа на оптички компоненти, нано-производство, микропроизводство, мезопроизводство, неконвенционално производство, индустриски компјутери и опрема за автоматизација, индустриски тестови и метролошки алатки и опрема, напредни инженерски и технички услуги. Нашата разлика од другите инженерски и производствени компании е дека ние сме способни да ви обезбедиме голем број компоненти, подсклопови, склопови и готови производи од еден единствен извор, имено AGS-TECH Inc. Нема друга компанија која може да ви обезбеди таков разновиден спектар на инженерски услуги и производствени способности. Нашата компанија е инкорпорирана во државата Ново Мексико-САД. Групата компании AGS има годишен обрт во опсег од повеќе милиони долари. Групата за напредна технологија AGS-TECH е дел од оваа поголема групација и сè уште расте од година во година. Членовите на нашиот технички тим поседуваат повеќе патенти во нивните области на експертиза, многумина имаат десетици публикации во меѓународно признати списанија и се пронаоѓачи со дипломирани дипломи од врвни универзитети во светот. Секојдневно нашите тимови ги прегледуваат нацртите доставени од клиентите, листовите со спецификации и сметката за материјали, разменуваат информации со клиентите, одржуваат инженерски состаноци и се консултираат меѓусебно, го даваат своето стручно мислење за нашите клиенти, ги менуваат и подобруваат плановите и дизајнот на клиентите, а понекогаш и прават нов дизајн од нула. Откако ќе ги одредат најекономичните, најпогодните и најбрзите процеси за одреден проект, формална понуда или предлог се презентира до секој клиент. По заеднички договор на двете страни, и ако проектот е подготвен да се однесе на следното ниво во производниот циклус, една или неколку наши погони се доделени за производство на производот. Сите фабрики се или една од системите за управување со квалитет ISO9001:2000, QS9000, TS16949, ISO13485 или AS9100 сертифицирани и произведуваат производи во согласност со европските и американските индустриски стандарди како што се ASTM, ISO, DIN, IEEE, MIL. Секогаш кога е потребно или потребно, производите се сертифицираат и се ставаат UL и/или CE ознака, или ако се за медицинска примена, тие се придружени со FDA сертификат. Ние поседуваме некои од овие производствени погони и имаме делумна сопственост во некои други. Со некои фабрики и специјализирани производствени претпријатија имаме партнерства или заедничко вложување. Ние, исто така, постојано гледаме на глобално ниво за купување акции или партнерство со нови производствени погони доколку тие ги исполнуваат нашите очекувања. Ова е бескраен циклус кој не тера да се подобруваме и растеме од ден на ден. Низ годините опслужуваме многу клиенти. За да видите што мислат некои од нив за AGS-TECH, ве молиме кликнете на оваа врска. ПРЕТХОДНА СТРАНИЦА

One of AGS-TECH Inc. specialties is Manufacturing Extraordinary Products such as brushes, mesh and wire, filters and filtration products for air & gases, liquids and filtering of solids, tanks and containers, membranes, industrial leather products, specialty textiles. Производство на вонредни производи Под извонредни производи мислиме на оние кои бараат специјализирано знаење, вештини и опрема за производство. На пример, ако ви требаат четки за специјална обработка, и ако производ за четка што се наоѓа надвор од полица не е лесно достапен, ќе треба да разговарате со нас за да се увериме дека нема да трошите парични и временски ресурси обидувајќи се да имате фабрика за калапи развива и произведува четка за вашата апликација. Инженерска фирма или производствен погон што не е специјализиран особено за четки, многу веројатно ќе го троши вашето време и средства и на крајот нема да може да испорача задоволувачки производ. Слично на тоа, ако сакате да се развие и произведе метален резервоар (контејнер) со сопствена големина за вашата процесна опрема, многу работи може да тргнат наопаку ако задачата му ја доделите на обичен производител на лим. Резервоарите треба да бидат направени од вистинскиот материјал, десен манометар, соодветно да се заварат и доработат, а додатоците како што се мерачите на притисок, мерачите на температурата, диспензерите... итн треба да бидат правилно избрани и инсталирани на вистинските локации. Дефинитивно бара соодветна експертиза за да не завршите со опасен резервоар кој може да експлодира или да истече корозивни хемикалии. Типот на извонредни производи развиени и произведени од нас го вклучуваат следново ( Ве молиме кликнете на сино означениот текст подолу за да отидете на соодветната страница ): Филтри и производи за филтрирање и мембрани Четки Мрежа и жица Резервоари и контејнери Индустриски кожни производи Индустриски и специјализирани и функционални текстил Индустриски хемикалии и потрошен материјал ПРЕТХОДНА СТРАНИЦА

Test Equipment for Cookware Testing, Cookware Tester, Cutlery Corrosion Resistance Tester, Strength Test Apparatus for Knives, Forks, Spatulas, Bending Strength Tester for Cookware Handles Тест опрема за тестирање на садови за готвење Специјализирана опрема за тестирање за тестирање на садови за готвење се користи за тестирање на производи за готвење како што се тенџериња, шпорети под притисок итн., за проверка на нивниот квалитет, издржливост, функционалност, доверливост, безбедност, усогласеност со домашните и меѓународните стандарди... итн. . Нашата специјализирана опрема за тестирање може да биде или: - КОРИСТЕНА ДИЗАЈНИРАНА и ПРОИЗВОДЕНА СПЕЦИЈАЛИЗИРАНА ТЕСТ ОПРЕМА за ТЕСТИРАЊЕ НА САДОВИ за готвење или - СПЕЦИЈАЛИЗИРАНА ТЕСТ ОПРЕМА ЗА ТЕСТИРАЊЕ НА САДОВИ Прилагодено дизајнирана специјализирана опрема за тестирање е дизајнирана и развиена од нас за специфичните потреби на нашите клиенти, земајќи ги предвид специфичните барања на нашите клиенти, нивните пазари, нивните законски одговорности... итн. Ние работиме со вас рака под рака за да го постигнете она што ви треба и сакате. Нашите инженери дизајнираат, прототипираат и добиваат ваше одобрение пред да ги направат вашите тест машини. Од друга страна, нашата специјализирана опрема за тестирање за тестирање на садови за готвење се веќе дизајнирани и произведени системи кои можат брзо да се купат од нас и да се користат. Ако ни известите што ви треба, со задоволство ќе ве водиме и ќе ви предложиме подготвени системи кои можат да помогнат во постигнувањето на вашите цели. Нашата специјализирана опрема за тестирање за тестирање на садови за готвење може да се преземе од обоените врски подолу: Каталог на машини за тестирање на садови за готвење Haida За друга слична опрема, посетете ја нашата веб-страница за опрема: http://www.sourceindustrialsupply.com КЛИКНЕТЕ Услуга за пронаоѓање на производи-локатор ПРЕТХОДНА СТРАНИЦА

Holography - Holographic Glass Grating - AGS-TECH Inc. - New Mexico - USA Производство на холографски производи и системи Ние доставуваме залихи на полицата, како и прилагодено дизајнирани и произведени ХОЛОГРАФСКИ ПРОИЗВОДИ, вклучувајќи: • Холограмски дисплеи од 180, 270, 360 степени/ Визуелна проекција базирана на холографија • Самолепливи холограмски дисплеи од 360 степени • 3D филм за прозорци за прикажување реклами • Full HD холограмска изложба и холографски дисплеј 3D пирамида за рекламирање со холографија • 3D холографски дисплеј холокуб за рекламирање со холографија • 3D холографски систем за проекција • Холографски екран со 3D Mesh Screen • Заден проектен филм / Преден проектен филм (со ролна) • Интерактивен екран на допир • Заоблен екран за проекција: Екран за заоблена проекција е приспособен производ направен по нарачка за секој клиент. Ние произведуваме заоблени екрани, екрани за активни и пасивни екрани на 3D симулатори и симулациски дисплеи. • Холографски оптички производи како што се налепници за безбедност и автентичност на производот (прилагодено печатење според барање на клиентот) • Холографски стаклени решетки за украсни или илустративни и едукативни апликации. За да дознаете за нашите можности за инженерство и истражување и развој, ве покануваме да ја посетите нашата инженерска страница http://www.ags-engineering.com КЛИКНЕТЕ Услуга за пронаоѓање на производи-локатор ПРЕТХОДНА СТРАНИЦА

Pneumatic Reservoirs, Hydraulic Reservoir, Vacuum Chambers, Tanks, High Vacuum Chamber, Hydraulics & Pneumatics System Components Manufacturing at AGS-TECH Inc. Резервоари и комори за хидраулика и пневматика и вакуум New designs of hydraulic and pneumatic systems require smaller and smaller RESERVOIRS than the traditional ones. We specialize in reservoirs that will meet your industrial needs and standards and are as compact as possible. High vacuum is expensive, and therefore the smallest VACUUM CHAMBERS that will fulfill your needs are the most appealing in most cases. We specialize in modular vacuum chambers and equipment and can offer you solutions on an ongoing basis as your business grows. HYDRAULIC & PNEUMATIC RESERVOIRS: Fluid power systems require air or liquid to transmit energy. Pneumatic systems use the air as the source for reservoirs. A compressor takes in atmospheric air, compresses it and then stores it in a receiver tank. A receiver tank is similar to a hydraulic system’s accumulator. A receiver tank stores energy for future use similar to a hydraulic accumulator. This is possible because air is a gas and is compressible. At the end of the work cycle the air is simply returned to the atmosphere. Hydraulic systems, on the other hand, need a finite amount of liquid fluid that must be stored and reused continually as the circuit works. Reservoirs are therefore part of almost any hydraulic circuit. Hydraulic reservoirs or tanks may be part of the machine framework or a separate stand-alone unit. The design and application of reservoirs is very important. The efficiency of a well-designed hydraulic circuit can be greatly reduced by poor reservoir design. Hydraulic reservoirs do much more than just providing a place to store fluid. FUNCTIONS OF PNEUMATIC & HYDRAULIC RESERVOIRS: In addition to holding in reserve enough fluid to supply a system's varying needs, a reservoir provides: -A large surface area for transferring heat from the fluid to the surrounding environment. -Sufficient volume to let returning fluid slow down from a high velocity. This allows heavier contaminants to settle down and facilitates air escape. Air space above the fluid can accept air that bubbles out of the fluid. Users get access to remove used fluid and contaminants from the system and can add new fluid. -A physical barrier separating fluid entering the reservoir from fluid entering the pump suction line. -Space for hot-fluid expansion, gravity drain-back from a system during shutdown, and storage of large volumes needed intermittently during peak periods of operation -In some cases, a convenient surface to mount other system components and components. COMPONENTS OF RESERVOIRS: The filler-breather cap should include a filter media to block contaminants as the fluid level lowers and rises during a cycle. If the cap is used for filling, it should have a filter screen in its neck to catch large particles. It is best to pre-filter any fluid entering reservoirs. The drain plug is removed and tank emptied when the fluid needs to be changed. At this time, the clean-out covers should be removed to provide access to clean out all stubborn residue, rust, and flaking that may have accumulated in the reservoir. The clean-out covers and internal baffle are assembled together, with some brackets to keep the baffle upright. Rubber gaskets seal the clean-out covers to prevent leaks. If the system is seriously contaminated, one must flush all pipes and actuators while changing the tank fluid. This can be done by disconnecting the return line and placing its end in a drum, then cycling the machine. Sight glasses on reservoirs make it easy to visually check fluid levels. Calibrated sight gauges provide even more accuracy. Some sight gauges include a fluid-temperature gauge. The return line should be located in the same end of the reservoir as the inlet line and on the opposite side of the baffle. Return lines should terminate below fluid level to reduce turbulence and aeration in reservoirs. The open end of the return line should be cut at 45 degrees to eliminate the chances of stopping flow if it gets pushed to the bottom. Alternatively the opening can be pointed toward the side wall to get the maximum heat-transfer surface contact possible. In cases where hydraulic reservoirs are part of the machine base or body, it may not be possible to incorporate some of these features. Reservoirs are occasionally pressurized because pressurized reservoirs provide the positive inlet pressure required by some pumps, usually in line piston types. Also pressurized reservoirs force fluid into a cylinder through an undersized pre-fill valve. This may require pressures between 5 and 25 psi and one cannot use conventional rectangular reservoirs. Pressurizing reservoirs keeps out contaminates. If the reservoir always has a positive pressure in it there is no way for atmospheric air with its contaminants to enter. Pressure for this application is very low, between 0.1 to 1.0 psi, and may be acceptable even in rectangular model reservoirs. In a hydraulic circuit, wasted horsepower needs to be calculated in order to determine heat generation. In highly efficient circuits the wasted horsepower could be low enough to use the reservoirs cooling capacities to keep maximum operating temperatures below 130 F. If heat generation is slightly higher than what standard reservoirs can handle, it may be best to oversize the reservoirs rather than adding heat exchangers. Oversized reservoirs are less expensive than heat exchangers; and avoid the cost of installing water lines. Most industrial hydraulic units operate in warm indoor environments and therefore low temperatures are not a problem. For circuits that see temperatures below 65 to 70 F., some sort of fluid heater is recommended. The most common reservoir heater is an electric-powered immersion type unit. These reservoir heaters consist of resistive wires in a steel housing with a mounting option. Integral thermostatic control is available. Another way to electrically heat reservoirs is with a mat that has heating elements like electric blankets. This type heaters require no ports in the reservoirs for insertion. They evenly heat the fluid during times of low or no fluid circulation. Heat can be introduced through a heat exchanger by using hot water or steam The exchanger becomes a temperature controller when it also uses cooling water to take away heat when needed. Temperature controllers are not a common option in most climates because the majority of industrial applications operate in controlled environments. Always consider first if there is any way to reduce or eliminate unnecessarily generated heat, so it does not have to be paid for twice. It is costly to produce the unused heat and it is also expensive to get rid of it after it enters the system. Heat exchangers are costly, the water running through them is not free, and maintenance of this cooling system can be high. Components such as flow controls, sequence valves, reducing valves, and undersized directional control valves can add heat to any circuit and should be carefully thought about when designing. After calculating wasted horsepower, review catalogs that include charts for given size heat exchangers showing the amount of horsepower and/or BTU they can remove at different flows, oil temperatures, and ambient air temperatures. Some systems use a water-cooled heat exchanger in the summer and an air-cooled one in the winter. Such arrangements eliminate plant heating in summer weather and save on heating costs in the winter. SIZING OF RESERVOIRS: The volume of a reservoir is a very important consideration . A rule of thumb for sizing a hydraulic reservoir is that its volume should equal three times the rated output of the system's fixed-displacement pump or mean flow rate of its variable-displacement pump. As an example, a system using a 10 gpm pump should have a 30 gal reservoir. This is nevertheless only a guideline for initial sizing. Due to modern day system technology, design objectives have changed for economic reasons, such as space saving, minimizing oil usage, and overall system cost reductions. Regardless of whether you choose to follow the traditional rule of thumb or follow the trend toward smaller reservoirs, be aware of parameters that may influence the reservoir size required. As an example, some circuit components such as large accumulators or cylinders may involve large volumes of fluid. Therefore, larger reservoirs may be needed so that fluid level does not drop below the pump inlet regardless of pump flow. Systems exposed to high ambient temperatures also require larger reservoirs unless they incorporate heat exchangers. Be sure to consider the substantial heat that can be generated within a hydraulic system. This heat is generated when the hydraulic system produces more power than is consumed by the load. The size of reservoirs, therefore, is determined primarily by the combination of highest fluid temperature and highest ambient temperature. All other factors being equal, the smaller the temperature difference between the two temperatures, the larger the surface area and hence the volume needed to dissipate heat from fluid to the surrounding environment. If the ambient temperature exceeds the fluid temperature, a heat exchanger will be needed to cool the fluid. For applications where space conservation is important, heat exchangers can reduce reservoir size and cost significantly. If reservoirs are not full at all times, they may not be dissipating heat through their full surface area. Reservoirs should contain at least 10% additional space of fluid capacity. This allows for thermal expansion of the fluid and gravity drain-back during shutdown, yet still provides a free fluid surface for deaeration. Maximum fluid capacity of reservoirs are marked permanently on their top plate. Smaller reservoirs are lighter, more compact, and less expensive to manufacture and maintain than one of traditional size and they are environmentally more friendly by reducing the total amount of fluid that can leak from a system. However specifying smaller reservoirs for a system must be accompanied by modifications that compensate for the lower volumes of fluid contained in the reservoirs. Smaller reservoirs have less surface area for heat transfer, and therefore heat exchangers may be necessary to maintain fluid temperatures within requirements. Also, in smaller reservoirs contaminants will not have as much opportunity for settling, so high-capacity filters will be required to trap contaminants. Traditional reservoirs provide the opportunity for air to escape from fluid before it is drawn into the pump inlet. Providing too small reservoirs could result in aerated fluid being drawn into the pump. This could damage the pump. When specifying a small reservoir, consider installing a flow diffuser, which reduces the velocity of return fluid, and helps prevent foaming and agitation, thus reducing potential pump cavitation from flow disturbances at the inlet. Another method you can use is to install a screen at an angle in the reservoirs. The screen collects small bubbles, which join with others to form large bubbles that rise to the fluid's surface. Nevertheless the most efficient and economical method to prevent aerated fluid from being drawn into the pump is to prevent aeration of fluid in the first place by paying careful attention to fluid flow paths, velocities, and pressures when designing a hydraulic system. VACUUM CHAMBERS: While it is sufficient to manufacture most of our hydraulic and pneumatic reservoirs by sheet metal forming due to the relatively low pressures involved, some or even most of our vacuum chambers are machined from metals. Very low pressure vacuum systems must endure high external pressures from the atmosphere and cannot be made of sheet metals, plastic moulds or other fabrication techniques that reservoirs are made of. Therefore vacuum chambers are relatively more expensive than reservoirs in most cases. Also sealing of vacuum chambers is a greater challenge as compared to reservoirs in most cases because gas leaks into the chamber is hard to control. Even minute amounts of air leak into some vacuum chambers can be disastrous while most pneumatic and hydraulic reservoirs can tolerate some leakage easily. AGS-TECH is a specialist in high and ultra high vacuum chambers and equipment. We provide our clients the highest quality in engineering and fabrication of high vacuum and ultra high vacuum chambers and equipment. Excellence is assured through control of the entire process from; CAD design, fabrication, leak-testing, UHV cleaning and bake-out with RGA scan when required. We do provide off the shelf catalogue items, as well as work closely with clients to provide custom vacuum equipment and chambers. Vacuum Chambers can be manufactured in Stainless steel 304L/ 316L & 316LN or machined from Aluminum. High vacuum can accommodate small vacuum housings as well as large vacuum chambers with several meters of dimensions. We offer fully integrated vacuum systems-manufactured to your specifications, or designed & built to your requirements. Our vacuum chamber manufacturing lines deploy TIG welding and extensive machine shop facilities with 3, 4 & 5 axis machining to process hard to machine refractory material such as tantalum, molybdenum to high temperature ceramics such as boron and macor. In addition to these complex chambers we are always ready to consider your requests for smaller vacuum reservoirs. Reservoirs and canisters for both low and high vacuum can be designed and supplied. As we are the most diverse custom manufacturer, engineering integrator, consolidator and outsourcing partner; you can contact us for any of your standard as well as complicated new projects involving reservoirs and chambers for hydraulics, pneumatics and vacuum applications. We can design reservoirs and chambers for you or use your existing designs and turn them into products. In any case, getting our opinion on hydraulic and pneumatic reservoirs and vacuum chambers and accessories for your projects will only be to your benefit. - Hydraulic Reservoirs with Private Label (We can put your company name as the brand and your company logo on these. This way you can market your brand name when selling or using these) КЛИКНЕТЕ Услуга за пронаоѓање на производи-локатор ПРЕТХОДНА СТРАНИЦА

Keys Splines and Pins, Square Flat Key, Pratt and Whitney, Woodruff, Crowned Involute Ball Spline Manufacturing, Serrations, Gib-Head Key from AGS-TECH Inc. Производство на клучеви и шилести и иглички Other miscellaneous fasteners we provide are keys, splines, pins, serrations. KEYS: A key is a piece of steel lying partly in a groove in the shaft and extending into another groove in the hub. A key is used to secure gears, pulleys, cranks, handles, and similar machine parts to shafts, so that the motion of the part is transmitted to the shaft, or the motion of the shaft to the part, without slippage. The key may also act in a safety capacity; its size can be calculated so that when overloading takes place, the key will shear or break before the part or shaft breaks or deforms. Our keys are also available with a taper on their top surfaces. For tapered keys, the keyway in the hub is tapered to accommodate the taper on the key. Some major types of keys we offer are: Square key Flat key Gib-Head Key – These keys are the same as flat or square tapered keys but with added head for ease of removal. Pratt and Whitney Key – These are rectangular keys with rounded edges. Two-thirds of these keys sit in the shaft and one-third in the hub. Woodruff Key – These keys are semicircular and fit into semicircular keyseats in the shafts and rectangular keyways in the hub. SPLINES: Splines are ridges or teeth on a drive shaft that mesh with grooves in a mating piece and transfer torque to it, maintaining the angular correspondence between them. Splines are capable of carrying heavier loads than keys, permit lateral movement of a part, parallel to the axis of the shaft, while maintaining positive rotation, and allow the attached part to be indexed or changed to another angular position. Some splines have straight-sided teeth, whereas others have curved-sided teeth. Splines with curved-sided teeth are called involute splines. Involute splines have pressure angles of 30, 37.5 or 45 degrees. Both internal and external spline versions are available. SERRATIONS are shallow involute splines with 45 degree pressure angles and are used for holding parts like plastic knobs. Major types of splines we offer are: Parallel key splines Straight-side splines – Also called parallel-side splines, they are used in many automotive and machine industry applications. Involute splines – These splines are similar in shape to involute gears but have pressure angles of 30, 37.5 or 45 degrees. Crowned splines Serrations Helical splines Ball splines PINS / PIN FASTENERS: Pin fasteners are an inexpensive and effective method of assembly when loading is primarily in shear. Pin fasteners can be separated into two groups: Semipermanent Pinsand Quick-Release Pins. Semipermanent pin fasteners require application of pressure or the aid of tools for installation or removal. Two basic types are Machine Pins and Radial Locking Pins. We offer the following machine pins: Hardened and ground dowel pins – We have standardized nominal diameters between 3 to 22 mm available and can machine custom sized dowel pins. Dowel pins can be used to hold laminated sections together, they can fasten machine parts with high alignment accuracy, lock components on shafts. Taper pins – Standard pins with 1:48 taper on the diameter. Taper pins are suitable for light-duty service of wheels and levers to shafts. Clevis pins - We have standardized nominal diameters between 5 to 25 mm available and can machine custom sized clevis pins. Clevis pins can be used on mating yokes, forks and eye members in knuckle joints. Cotter pins – Standardized nominal diameters of cotter pins range from 1 to 20 mm. Cotter pins are locking devices for other fasteners and are generally used with a castle or slotted nuts on bolts, screws, or studs. Cotter pins enable low-cost and convenient locknut assemblies. Two basic pin forms are offered as Radial Locking Pins, solid pins with grooved surfaces and hollow spring pins which are either slotted or come with spiral-wrapped configuration. We offer the following radial locking pins: Grooved straight pins – Locking is enabled by parallel, longitudinal grooves uniformly spaced around the pin surface. Hollow spring pins – These pins are compressed when driven into holes and pins exert spring pressure against the hole walls along their entire engaged length to produce locking fits Quick-release pins: Available types vary widely in head styles, types of locking and release mechanisms, and range of pin lengths. Quick-release pins have applications such as clevis-shackle pin, draw-bar hitch pin, rigid coupling pin, tubing lock pin, adjustment pin, swivel hinge pin. Our quick release pins can be grouped into one of two basic types: Push-pull pins – These pins are made with either a solid or hollow shank containing a detent assembly in the form of a locking lug, button or ball, backed up by some sort of plug, spring or resilient core. The detent member projects from the pins surface until sufficient force is applied in assembly or removal to overcome the spring action and to release the pins. Positive-locking pins - For some quick-release pins, the locking action is independent of insertion and removal forces. Positive-locking pins are suited for shear-load applications as well as for moderate tension loads. КЛИКНЕТЕ Услуга за пронаоѓање на производи-локатор ПРЕТХОДНА СТРАНИЦА

Automation and Intelligent Systems, Artificial Intelligence, AI, Embedded Systems, Internet of Things, IoT, Industrial Control Systems, Automatic Control, Janz Автоматизација и интелигентни системи AUTOMATION also referred to as AUTOMATIC CONTROL, is the use of various CONTROL SYSTEMS for operating equipment such as factory machines, heat treating and curing ovens, telecommunication equipment, …etc. with minimal or reduced human intervention. Automation is achieved by using various means including mechanical, hydraulic, pneumatic, electrical, electronic and computers in combination. An INTELLIGENT SYSTEM on the other hand is a machine with an embedded, Internet-connected computer that has the capability to gather and analyze data and communicate with other systems. Intelligent systems require security, connectivity, ability to adapt according to current data, capability for remote monitoring and management. EMBEDDED SYSTEMS are powerful and capable of complex processing and data analysis usually specialized for tasks relevant to the host machine. Intelligent systems are all around in our daily lives. Examples are traffic lights, smart meters, transportation systems and equipment, digital signage. Some brand name products we sell are ATOP TECHNOLOGIES, JANZ TEC, KORENIX, ICP DAS, DFI-ITOX. AGS-TECH Inc. offers you products that you can readily purchase from stock and integrate into your automation or intelligent system as well as custom products designed specifically for your application. As the most diverse ENGINEERING INTEGRATION provider we pride ourselves with our capability to provide a solution for almost any automation or intelligent system needs. Besides products, we are here for your consulting and engineering needs. CLICK ON BLUE COLORED TEXT BELOW TO DOWNLOAD OUR PRODUCT BROCHURES AND CATALOGS: - ATOP TECHNOLOGIES compact product brochure - ATOP Technologies Product List 2021) - Barcode and Fixed Mount Scanners - RFID Products - Mobile Computers - Micro Kiosks OEM Technology (We private label these with your brand name and logo if you wish) - Barcode Scanners (We private label these with your brand name and logo if you wish) - Catalog for Vandal-Proof IP65/IP67/IP68 Keyboards, Keypads, Pointing Devices, ATM Pinpads, Medical & Military Keyboards and other similar Rugged Computer Peripherals - DFI-ITOX brand embedded single board computers brochure - Fixed Industrial Scanners (We private label these with your brand name and logo if you wish) - ICP DAS brand industrial communication and networking products brochure - ICP DAS brand Industrial Touch Pad brochure - ICP DAS brand machine automation brochure - ICP DAS brand PACs Embedded Controllers & DAQ brochure - ICP DAS brand PCI Boards and IO Cards - ICP DAS brand Remote IO Modules and IO Expansion Units brochure - JANZ TEC brand compact product brochure - Kiosk Systems (We private label these with your brand name and logo if you wish) - Kiosk Systems Accessories Guide (We private label these with your brand name and logo if you wish) - KORENIX brand compact product brochure - Mobile Computers for Enterprises (We private label these with your brand name and logo if you wish) - Printers for Barcode Scanners and Mobile Computers (We private label these with your brand name and logo if you wish) - RFID Readers - Scanners - Encoders - Printers (We private label these with your brand name and logo if you wish) Dowload brochure for our DESIGN PARTNERSHIP PROGRAM Industrial control systems are computer-based systems to monitor and control industrial processes. Some of our INDUSTRIAL CONTROL SYSTEMS (ICS) are: - Supervisory Control and Data Acquisition (SCADA) Systems : These systems operate with coded signals over communication channels to provide control of remote equipment, generally using one communication channel per remote station. The control systems may be combined with data acquisition systems by adding the use of coded signals over communication channels to acquire information about the status of the remote equipment for display or for recording functions. SCADA systems are different from other ICS systems by being large-scale processes that can include multiple sites over large distances. SCADA systems can control industrial processes such as manufacturing and fabrication, infrastructure processes such as transport of oil & gas, electric power transmission, and facility-based processes such as monitoring & control of heating, ventilation, air conditioning systems. - Distributed Control Systems (DCS) : A type of automated control system that is distributed throughout a machine to provide instructions to different parts of the machine. Contrary to having a centrally located device controlling all machines, in distributed control systems each section of a machine has its own computer that controls the operation. DCS systems are commonly used in manufacturing equipment, utilizing input and output protocols to control the machine. Distributed Control Systems typically use custom designed processors as controllers. Both proprietary interconnections as well as standard communications protocols are used for communication. Input and output modules are the component parts of a DCS. Input and output signals may be either analog or digital. Buses connect the processor and modules through multiplexers and demultiplexers. They also connect the distributed controllers with the central controller and to the Human–machine interface. DCS are frequently used in: -Petrochemical and chemical plants -Power plant systems, boilers, nuclear power plants -Environmental control systems -Water management systems -Metal manufacturing plants - Programmable Logic Controllers (PLC) : A Programmable Logic Controller is a small computer with a built-in operating system made primarily to control machinery. PLCs operating systems are specialized to handle incoming events in real time. Programmable Logic Controllers can be programmed. A program is written for the PLC which turns on and off outputs based on input conditions and the internal program. PLCs have input lines where sensors are connected to notify events (such as temperature being above/below a certain level, liquid level reached,… etc.), and output lines to signal any reaction to the incoming events (such as start the engine, open or close a specific valve,… etc.). Once a PLC is programmed, it can run repeatedly as needed. PLCs are found inside of machines in industrial environments and can run automatic machines for many years with little human intervention. They are designed for harsh environments. Programmable Logic Controllers are used extensively in process-based industries, they are computer-based solid-state devices that control industrial equipment and processes. Even though PLCs can control system components used in SCADA and DCS systems, they are often the primary components in smaller control systems. CLICK Product Finder-Locator Service ПРЕТХОДНА СТРАНИЦА