What is an Ultracapacitor?
Why Ultracapacitor?
The Ultracapacitors as a proven energy storage device can replace the battery which is constrained in power delivery and also replace conventional capacitors which have very limited energy storage capabilities.
Properties
Rated Voltage (V, DC) |
Rated Capacitance (F) |
MAX ESR (mO) |
Dimension(mm) | Volume (ml) |
Weight (g) |
Part Number | |||
---|---|---|---|---|---|---|---|---|---|
AC | D | L | W | T | |||||
2.3 | 5 | <123 | 10 | 20 | 1.6 | 2.4 | ESLSR-0005C0-002R3 | ||
2.3 | 7 | <35 | 8 | 30 | 1.5 | 2.2 | ESLLR-0007C0-002R3 | ||
2.3 | 10 | <70 | 10 | 30 | 2.4 | 3.6 | ESLSR-0010C0-002R3 | ||
2.3 | 25 | <38 | 16 | 25 | 5.0 | 7.6 | ESLSR-0025C0-002R3 | ||
2.3 | 60 | <23 | 18 | 40 | 10.2 | 13.5 | ESLSR-0060C0-002R3 | ||
2.7 | 3 | <61 | 8 | 20 | 1.0 | 1.5 | ESHSR-0003C0-002R7 | ||
2.7 | 5 | <29 | 10 | 20 | 1.6 | 2.3 | ESHSR-0005C0-002R7 | ||
2.7 | 6 | <26 | 8 | 30 | 1.5 | 2.3 | ESHSR-0006C0-002R7 | ||
2.7 | 10 | <26 | 10 | 30 | 1.5 | 3.2 | ESHSR-0010C0-002R7 | ||
2.7 | 25 | <21 | 16 | 25 | 1.0 | 6.5 | ESHSR-0025C0-002R7 | ||
2.7 | 50 | <14 | 18 | 40 | 1.5 | 11.3 | ESHSR-0050C0-002R7 |
Rated Voltage (V, DC) |
Rated Capacitance (F) |
MAX ESR (mO) |
Dimension(mm) | Volume (ml) |
Weight (g) |
Part Number | |||
---|---|---|---|---|---|---|---|---|---|
AC | D | L | W | T | |||||
2.3 | 120 | <16 | 22 | 45 | 17.1 | 23 | ESLSR-0120C0-002R3 | ||
2.7 | 90 | <6 | 22 | 45 | 17.1 | 21.5 | ESHLR-0090C0-002R7 | ||
2.7 | 100 | <9 | 22 | 45 | 17.1 | 21 | ESHSR-0100C0-002R7 | ||
2.7 | 360 | <3.2 | 35 | 62 | 60 | 67 | ESHSR-0360C0-002R7A |
Rated Voltage (V, DC) |
Rated Capacitance (F) |
MAX ESR (mO) |
Dimension(mm) | Volume (ml) |
Weight (g) |
Part Number | |||
---|---|---|---|---|---|---|---|---|---|
AC | D | L | W | T | |||||
2.7 | 600 | <0.64 | 90 | 60 | 28 | 151 | 210 | ESHSP-0600C0-002R7 | |
2.7 | 1700 | <0.50 | 165 | 60 | 28 | 277 | 385 | ESHSP-1700C0-002R7 | |
2.7 | 3500 | <0.28 | 165 | 60 | 52 | 515 | 685 | ESHSP-3500C0-002R7 | |
2.7 | 5000 | <0.25 | 165 | 60 | 72 | 713 | 930 | ESHSP-5000C0-002R7 |
Rated Voltage (V, DC) |
Rated Capacitance (F) |
MAX ESR (mO) |
Dimension(mm) | Volume (ml) |
Weight (g) |
Part Number | |||
---|---|---|---|---|---|---|---|---|---|
AC | D | L | W | T | |||||
2.7 | 650 | <0.50 | 60.2 | 51.5 | 164 | 205 | ESHSR-0650C0-002R7A5 | ||
2.7 | 1200 | <0.40 | 60.2 | 74 | 228 | 280 | ESHSR-1200C0-002R7A5 | ||
2.7 | 1600 | <0.34 | 60.2 | 85 | 259 | 335 | ESHSR-1600C0-002R7A5 | ||
2.7 | 2000 | <0.28 | 60.2 | 102 | 307 | 390 | ESHSR-2000C0-002R7A5 | ||
2.7 | 3000 | <0.22 | 60.2 | 138 | 410 | 530 | ESHSR-3000C0-002R7A5 |
Rated Voltage (V, DC) |
Rated Capacitance (F) |
MAX ESR (mO) |
Dimension(mm) | Volume (ml) |
Weight (g) |
Part Number | |||
---|---|---|---|---|---|---|---|---|---|
AC | D | L | W | T | |||||
2.7 | 650 | <0.50 | 60.2 | 52.5 | 223 | 210 | ESHSR-0650C0-002R7A5T | ||
2.7 | 1200 | <0.40 | 60.2 | 75 | 288 | 285 | ESHSR-1200C0-002R7A5T | ||
2.7 | 1600 | <0.34 | 60.2 | 86 | 319 | 340 | ESHSR-1600C0-002R7A5T | ||
2.7 | 2000 | <0.28 | 60.2 | 103 | 367 | 395 | ESHSR-2000C0-002R7A5T | ||
2.7 | 3000 | <0.22 | 60.2 | 139 | 470 | 535 | ESHSR-3000C0-002R7A5T |
Rated Voltage (V, DC) |
Rated Capacitance (F) |
MAX ESR (mO) |
Dimension(mm) | Volume (ml) |
Weight (g) |
Part Number | |||
---|---|---|---|---|---|---|---|---|---|
AC | D | L | W | T | |||||
2.3 | 50 | <24 | 16 | 25 | 5.0 | 7.6 | PSHLR-0050C0-002R3 | ||
2.3 | 120 | <18 | 18 | 40 | 10.2 | 15 | PSHLR-0120C0-002R3 |
Rated Voltage (V, DC) |
Rated Capacitance (F) |
MAX ESR (mO) |
Dimension(mm) | Volume (ml) |
Weight (g) |
Part Number | |||
---|---|---|---|---|---|---|---|---|---|
AC | D | L | W | T | |||||
2.3 | 220 | <14 | 22 | 45 | 17.1 | 23 | PSHLR-0220C0-002R3 | ||
2.3 | 300 | <12 | 22 | 45 | 19.0 | 25.2 | PSHLR-0300C0-002R3 |
Rated Voltage (V, DC) |
Rated Capacitance (F) |
MAX ESR (mO) |
Dimension(mm) | Volume (ml) |
Weight (g) |
Part Number | |||
---|---|---|---|---|---|---|---|---|---|
AC | D | L | W | T | |||||
5.0 | 1.5 | <110 | 9.5 | 23 | 17.5 | 3.4 | EMHSR-0001C5-005R0 | ||
5.0 | 2.5 | <53 | 12 | 23 | 21.5 | 5 | EMHSR-0002C5-005R0 | ||
48 | 36 | <10.8 | 430 | 200 | 94.5 | 7.5kg | EMHSR-0036C0-048R0S | ||
48 | 66 | <8.6 | 430 | 200 | 117 | 9.0kg | EMHSR-0066C0-048R0S | ||
48 | 88 | <7.3 | 430 | 200 | 128 | 19.6kg | EMHSR-0088C0-048R0S | ||
48 | 111 | <6.0 | 430 | 200 | 145 | 12.2kg | EMHSR-0111C0-048R0S | ||
48 | 166 | <4.8 | 430 | 200 | 181 | 16.0kg | EMHSR-0166C0-048R0S |
Rated Voltage (V, DC) |
Rated Capacitance (F) |
MAX ESR (mO) |
Dimension(mm) | Volume (ml) |
Weight (g) |
Part Number | |||
---|---|---|---|---|---|---|---|---|---|
AC | D | L | W | T | |||||
15 | 33 | <27 | 242 | 48 | 54 | 850 | EMHSR-0033C0-015R0 | ||
17.5 | 57 | <16 | 180 | 48 | 150 | 1.5kg | EMHSR-0057C0-017R5 | ||
42 | 205 | <4.8 | 392 | 276 | 240 | 24kg | EMHSP-0205C0-042R0 | ||
45 | 94 | <9 | 121 | 193 | 201 | 11kg | EMHSP-0094C0-045R0 | ||
52 | 238 | <4.8 | 512 | 311 | 240 | 32kg | EMHSP-0238C0-052R0 | ||
90 | 2.8 | <320 | 290 | 125 | 84 | 1.7kg | EMHSR-0002C8-090R0 | ||
340 | 51 | <19 | 1568 | 276 | 960 | 384kg | EMHSP-0051C0-340R0 |
allows charging speed unparalleled by any batteries which rely on chemical reactions.
EDLC (Electric Double Layer Capacitor)
The majority of the commercially available UltraCapacitors is Electric Double-Layer Capacitor, or EDLC. An EDLC can be viewed as a set of two nonreactive porous carbon electrodes on current collectors, immersed in an electrolyte system with a voltage potential applied across the collectors.
In an EDLC cell, the applied potential on the positive electrode attracts the negative ions in the electrolyte, while the same potential at the negative electrode attracts the positive ions. A dielectric separator prevents the two electrodes from creating a short circuit. The amount of energy stored is very large compared to a traditional capacitor due to the enormous surface area that is available on the porous carbon electrodes.
Though EDLCs are considered electrochemical devices, no chemical reactions are involved in the energy storage mechanism. The energy storage mechanism is a physical phenomenon and is highly reversible; this gives EDLCs their extremely long cycle life. Since the rates of charge and discharge are dependent only upon the physical movement of ions, the UltraCapacitors can store and release energy much faster (meaning more power) than a battery that relies on slower chemical reactions.
Pseudocapacitor
Nesscap Pseudocapacitor cell is a hybrid capacitor which is a combination of EDLC and high energy battery. This configuration provides quick energy release of an EDLC and the higher storage capacity of a battery in one package. In a pseudocapacitor cell, one of the two porous carbon electrodes is replaced with such materials as metal-doped carbons, conducting polymers, or metal oxides. This result in two different charge mechanisms at the electrodes: electric double layer form at the porous carbon electrode and a combination of faradaic and surface reactions occur at the high energy electrode. This combination produces a charge transfer behavior that is linearly dependent upon the applied voltage, and, as a result, the final device functions and behaves like a capacitor.
Nesscap’s Pseudocapacitor typically have little less than double the energy of the EDLC products of similar physical dimensions at the cost of shorter cycle life and lower rate capabilities. For applications that does not require so much heavy-duty cycling, such as UPS or other power backup applications, using Pseudocapacitor can be the optimal solution.
makes it an ideal partner to all your future projects.
Complete qualification and verification of raw materials and relevant vendors
- Identification of all required manufacturing process control parameters
- Optimization of the operational voltage
- Optimization of electrode formulation to meet market requirements
Nesscap is also able to provide customized solutions. Our engineering staff can size and design UltraCapacitors energy storage systems to meet any specific demand
Nesscap believes it is essential to protect its intellectual property, particularly its patents. Nesscap continues to strive to file for protection of its inventions in order to maximize the value of all processes and designs that were invented by its R&D department. Nesscap believes its success will depend in part on its ability to protect its existing patents, to acquire additional patent protection in a manner which reinforces the existing patent portfolio and to develop new processes and designs not currently claimed by the patents of third parties.
Nesscap seeks to protect its new technologies by applying for patents in jurisdictions in which it hopes to gain a market advantage. Such jurisdictions include countries in North America, Europe, and Asia. Nesscap also has various patents which have been cross-licensed within the UltraCapacitors market, ensuring its ability to access such technology should it be necessary.