Flipscale F3 

One of the Smallest Digital Scales on Earth!

The innovative flip design of the new F3 combines the best of both worlds. Flip it shut for compact storage and transportation, while protecting the buttons and LCD. Open it up and you'll find it has a large LCD display with a blue backlight and big, easy to use buttons. The compact folding design also creates room for its large stainless steel weighing platform that measures 2.5" x 2.0".

The F3 continues the Flipscale tradition of being one of the smallest digital scales on earth. Even though it's only 2.4 inches wide and 3.3 inches long, it has a great 100g or 200g capacity with up to 0.01g accuracy.

The much improved Flipscale F3 doesn't stop there. We've added 4 more weighing units to the F3, broadening it's already wide range of uses. It also comes with a new clear, removable weighing tray that snaps onto the outer shell of the scale for easy access and storage.

The F3 now includes WEIGHMETER technology to help prevent scale overloading, a great new feature that will help extend the life of the scale for years and years of accurate use.

Features

Capacity, Modes, and graduation
Unit Flipscale 100 Flipscale 200
Grams 100g x 0.01g 200g x 0.05g
Grains 1543.2gn x 0.1gn 3086.5gn x 0.5gn
Ounces

3.5270oz x 0.0005oz

7.055oz x 0.001
Troy Ounces 3.2150ozt x 0.0005ozt 6.430ozt x 0.001ozt
Pennyweight 64.30dwt x 0.005dwt 128.60dwt x 0.02dwt
Carats 500.00ct x 0.05ct 1000.0ct x 0.2ct
Taels 2.6664tl.T x 0.0002tl.T 5.332tl.T x 0.001tl.T
Milligrams 99990mg x 10mg 99950mg x 50mg
  • Available in 200g x 0.05g or 100g x 0.01g
  • Weighs in 8 Standard Modes*
  • Calibration weight, lithium batteries and removable weighing tray included
  • Now featuring WEIGHMETER technology to prevent overload
  • Stainless Steel Tray
  • Runs on Lithium Batteries (included)
  • HUGE 5-DIGIT LCD DISPLAY with BLUE BACKLIGHT
  • Auto Off Function
  • Lifetime/30 year replacement Warranty-CE


Totally Innovative
The original Flipscale was the first digital scale ever to have the LCD on the top of the display. By putting the LCD on the top of the scale, extra room is available for the weighing platform. This scale may be tiny, but it's weighing platform is larger then most other pocket scales!

Where Did The Idea Come From?
The idea for the Flipscale first came about in 1995. We were attending jewelry trade shows and we noticed the buyers were doing something very peculiar. They would go from table to table looking at rings and weighing them to determine value / merchantability. They would stop at each table, put their briefcase on the table, open the briefcase, remove their scale, use their scale, then have to put it back in the briefcase and repeat this entire process at every table. We realized that if these jewelers had a wearable scale it would make their buying much faster and easier.

Product Images

 

Specifications

Flipscale F3 - 100

Flipscale F3 - 100
Specifications
Capacity
100g x 0.01g | 1543.2gn x 0.1gn | 3.5270oz x 0.0005oz | 3.2150ozt x 0.0005ozt | 64.30dwt x 0.005dwt | 500.00ct x 0.05ct | 2.6664tl.T x 0.0002tl.T | 99990mg x 10mg
Accessories
50g or 100g calibration weight, lithium batteries, extra large backlit LCD.
Dimensions
2 3/8" x 3 3/8" x 7/8" (60mm x 85mm x 22mm)(closed) / 6 3/8" x 3 3/8" x 3/8" (163mm x 85mm x 10mm)(open) / Tray/Platform Size: 2.5" x 2" (64mm x 50mm)
Max Overload
200% of Capacity Minimum (for EXTREME durability)
Readabilty / Accuracy
+/- 0.01g / 0.15gn / 0.0005oz / 0.0005ozt / 0.005dwt / 0.005ct / 0.0002tl.T / 10mg
Warranty
Lifetime/30 year worldwide warranty

Flipscale F3 - 200

Flipscale F3 - 200
Specifications
Capacity
200g x 0.05g | 3086.5gn x 0.5gn | 7.055oz x 0.001 | 6.430ozt x 0.001ozt | 128.60dwt x 0.02dwt | 1000.0ct x 0.2ct | 5.332tl.T x 0.001tl.T | 99950mg x 50mg
Accessories
50g or 100g calibration weight, lithium batteries, extra large backlit LCD.
Dimensions
2 3/8" x 3 3/8" x 7/8" (60mm x 85mm x 22mm)(closed) / 6 3/8" x 3 3/8" x 3/8" (163mm x 85mm x 10mm)(open) / Tray/Platform Size: 2.5" x 2" (64mm x 50mm)
Max Overload
200% of Capacity Minimum (for EXTREME durability)
Readabilty / Accuracy
+/- 0.05g / 0.5gn / 0.001oz / 0.001ozt / 0.02dwt / 0.2ct / 0.001tl.T / 50mg
Warranty
Lifetime/30 year worldwide warranty

User Manual

Flipscale F3 ...

Flipscale F3 Owner's Manual - 200

Owner's Manual - 200
Related Scales

Patents

Flipscale Patent ...

 

The Flipscale is protected by patents (some pending) and trademarks in the USA, Canada, UK,
& EU. Other countries may also recognize these patents under CTO trademark/patent treaties.
The US Design patent is pictured here.
Ffor more legal / patent / trademark information please contact our legal department.

ELECTRONIC SCALE ...

Legal Notice

ELECTRONIC SCALE WITH OVERLOAD INDICATION AND RELATIVE CAPACITY ON DISPLAY SCREEN
Filed: OCTOBER 5, 2005
Our US Docket No. 10160-086

U. S. Patent 7,256,358 issued 8/14/2007

ELECTRONIC SCALE WITH OVERLOAD

INDICATION ON DISPLAY SCREEN

Our Docket No. 10160-086

 

PUBLIC NOTICE
Utility and Design Patents have been GRANTED at the US PTO and the EU PCT/EPO for the Weighmeter invention. The invention of the graphic bar display showing a bar graph with remaining capacity and overload notification. A second patent application has also been filed for the special design of our dual Weighmeter display
This page serves as notice that the Weighmeter is protected by these pending patents that have been filed in both the USPTO and EU PCT/EPO. Copies of the relevant portion of the patents are posted below and serve as Public Notice.
U. S. Patent 7,256,358 issued 8/14/2007

ELECTRONIC SCALE WITH OVERLOAD

INDICATION ON DISPLAY SCREEN

Our Docket No. 10160-086

EU Patent App# (pending)

ELECTRONIC SCALE WITH

OVERLOAD INDICATION ON DISPLAY SCREEN

 

Field of the Invention

[0001] The present invention relates to a scale capable of providing a digital display of an object’s weight as well as a graphical display feature for indicating weight relative to overload of the scale.

 

Background of the Invention

[0002] There are a number of patents for digital scales. Current scales generally employ sensing devices such as transducer load cell assemblies or piezoelectric sensors for measuring the weight, an analog to digital converter for converting the sensed signal into digital format, and a microcomputer for receiving the A/D converted data and displaying the digital representation onto a digital display, such as an LCD display. Scales of this type are generally known both as regards their construction and their operation, so that a detailed description can be eliminated.

 

[0003] Typically, with an electronic scale, an object is positioned on a weighing platform, where the weight of the object causes the weighing platform to move downward. The downward force causes the weighing platform to exert a force or pressure on a transducer. The transducer converts the downward force into an analog signal in terms of a voltage or a current having a magnitude, which varies according to the weight of the object.

 

[0004] This analog signal is easily converted for digital display purposes with the use of an analog to digital converter (A/D converter). Essentially, the prior art shows many techniques for performing analog to digital conversion. Primarily, the object of such devices is to respond to an analog signal to provide therefrom a digital code or a digital signal, which can be processed by conventional digital circuitry to eventually activate a digital display, such that, the weight of the object is displayed on the display screen.

[0005] When a scale reaches or exceeds its maximum capacity, an overload condition occurs which can produce inaccurate results and, more importantly, damage the scale. Accordingly, there is a need in the art for a means to warn of a potential overload condition for a scale.

 

Brief Summary of the Invention

[0006] The digital scale of the present invention solves the above-stated need in the art. Generally, the scale comprises a casing with a weighing platform, for supporting items to be weighed, a display screen, and the electronic components for controlling such. The scale is preferably an electronic scale, where downward forces on the weighing platform are sensed by a transducer that produces an electrical signal indicative of weight. The visual display also includes a graphical display feature for indicating weight relative to overload of the scale. Such an indication will provide a user with adequate warning that the scale’s maximum capacity is approaching to help prevent damage to the scale.

[0007] Other aspects and advantages of the invention will become apparent from the following detailed description taken in conjunction with the accompanying drawings, illustrating, by way of example, the principles of the invention.

[0008] All patents, patent applications, provisional applications, and publications referred to or cited herein, or from which a claim for benefit of priority has been made, are incorporated herein by reference in their entirety to the extent they are not inconsistent with the explicit teachings of this specification.

 

Brief Description of the Drawings

[0009] In order that the manner in which the above-recited and other advantages and objects of the invention are obtained, a more particular description of the invention briefly described above will be rendered by reference to specific embodiments thereof which are illustrated in the appended drawings. Understanding that these drawings depict only typical embodiments of the invention and are not therefore to be considered to be limiting of its scope, the invention will be described and explained with additional specificity and detail through the use of the accompanying drawings in which:

[0010] Figures 1a – 1c depict a sample digital scale.

[0011] Figure 2 depicts a block diagram of a sample digital scale.

[0012] Figure 3 depicts a sample display screen of the digital scale.

 

Detailed Disclosure of the Invention

[0013] With reference to Figures 1-3, the scale 10 of the present invention comprises a casing 20 having a weighing platform 30, for supporting items to be weighed, a display screen 24, for displaying the weight of the objects and an indication 40 of weight relative to overload (wherein overload is the predetermined maximum weight capacity for the scale), and the electronic components for controlling such. The scale 10 may further include a hinged cover 21 that opens on hinges 23. The function keys 31 may be arranged as a matter of design choice. In the example provided, function keys are shown located on the upper surface of the bottom portion 25 of the scale 10 near the weighing platform 30.

[0014] An example of a simplified block diagram for an electronic scale is shown in Figure 2, where the electronic components of the scale 10 are positioned within the case. The scale 10 is preferably an electronic scale 10. As shown, an object 12 is positioned on a weighing platform 30 where downward forces on the weighing platform 30 are sensed by a transducer 11, which produces an electrical signal indicative of weight. The weighing platform 30 is associated with a base member 13, which is positioned on a horizontal reference plane. The object 12 causes the weighing platform 30 to move perpendicular with respect to the plane or base 13. The perpendicular force of the weight of the object 12 causes the weighing platform 30 to exert a force or pressure on a transducer 11 coupled between the weighing platform 30 and the base 13.

[0015] The indication of weight relative to overload 40 on the display 24 becomes active while the weight of the object 12 is being determined. In the event the indication of weight relative to overload reaches a predetermined maximum value, “overload” is also displayed. The weighing platform 30 and base member 13 are conventional scale components and many examples of suitable apparatus exist in the prior art and may be used herein.

[0016] The transducer 11 or load cell can be a number of different devices for converting a pressure or a force into an electrical signal as known in the art. As such, the transducer 11 may compromise a Wheatstone bridge configuration employing piezoresistive elements or other pressure converting devices to provide a varying electrical signal indicative of the weight of the object 12 on the weighing platform 30. As such, the transducer 11 supplies an analog signal in terms of a voltage or a current having a magnitude which varies according to the weight of the object 12.

[0017] This analog signal is converted for digital display purposes with the use of an analog to digital converter (A/D converter). Essentially, the prior art shows many techniques for performing analog to digital conversion, any of which may be used herein. Such devices respond to an analog signal to provide a digital code or a digital signal, which can be processed by conventional digital circuitry to eventually activate a digital display, such that, the weight of the object 12 is displayed on the display screen 24.

[0018] Display screen 24 comprises a liquid crystal (LC) with an optional internal lamp, a light-emitting diode (LED), an organic light-emitting diode (OLED), an electroluminescent (EL) device, or other optically sensible display modality that is responsive to electrical stimulation. These display technologies are well known to those skilled in the art of electronics.

[0019] Turning now to Figure 3, in a preferred embodiment, the display screen 24 includes an indication 40 of current weight relative to overload. This indication 40 is preferably displayed graphically based on ratio of the present weight amount to maximum weight capacity of the scale, e.g., 0% (empty), 20%, 50%, etc., up to 100% (overload). The present weight amount is obtained and is then divided by the maximum weight capacity of the scale (“overload threshold”) to indicate the weight relative to overload in percentage on the display. The percent weight relative to overload is preferably displayed as an LCD bar graph on the display screen. The bar graph may include a series of segments wherein each segment represents a percentage of maximum weight capacity of the scale. For example, each segment could represent 10% such that when 5 out of 10 segments are displayed, the current weight would be about 50% the maximum capacity of the scale. The segments may also be graduated such that the segments appear wider as the maximum capacity is reached. Similarly, a pie chart could be used to represent weight relative to overload in %. Other suitable forms of indicating current weight relative to overload may also be used. For example, dials, numerical displays, or other graphics.

[0020] Moreover, when the object placed on the weighing platform 30 is greater in weight than the scale 10 is capable of handling, the display screen 24 further includes the words OVERLOAD.

[0021] Other indications may include audio indications of overload. Similarly, a graduated tone may be used to indicate by sound the current weight relative to overload, for example, getting higher in tone as the current weight approaches overload.

[0030] While there has been shown and described what is considered to be a preferred embodiment of the invention, it will, of course, be understood that various modifications and changes in form or detail could readily be made without departing from the spirit of the invention. It is therefore, intended that the invention not be limited to the exact form and detail herein shown and described, nor to anything less than the whole of the invention herein disclosed.



Abstract of the Disclosure

[0031] An electronic scale comprising a display screen for digitally displaying the weight of an object, a processing device for controlling the scale and the display screen, wherein the display screen displays an indication of weight relative to overload.

Draft Figures

Legal Notice: Any attempt to violate or copy our patented designs or technology will result in immediate prosecution as in the Seikin case. We work hard to develop our products, and we protect our proprietary technology and inventions with patents and other legal protections. For legal questions or licensing inquiries please contact our legal department.

Advised by Hughes Hubbard & Reed LLP

US Filings by Beusse Brownlee Bowdoin & Wolter, P.A.