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The classic capacitor failure mechanism is dielectric breakdown. The dielectric in the capacitor is subjected to the full potential to which the device is charged and, due to small capacitor physical sizes, high electrical stresses are common. Dielectric breakdowns may develop after many hours of satisfactory operation. Open capacitors usually occur as a result of overstress in an application. For instance, operation of DC rated capacitors at high AC current levels can cause a localized heating at the end terminations. The localized heating is. The following list is a summary of the most common environmentally "critical factors" with respect to capacitors. The design engineer must take into consideration his own applications and the effects caused by combinations of various.
[PDF Version]In addition to these failures, capacitors may fail due to capacitance drift, instability with temperature, high dissipation factor or low insulation resistance. Failures can be the result of electrical, mechanical, or environmental overstress, "wear-out" due to dielectric degradation during operation, or manufacturing defects.
Electrical overvoltage, inadequate heat dissipation, and poor solder connections are other common causes of burning ceramic capacitors. Particularly ceramic capacitors that are soldered onto assemblies are susceptible to cracks.
Ceramic capacitors may catch fire for various reasons. Mechanical stresses such as bending and torsional forces can cause cracks in the ceramic material, which may then lead to short circuits and overheating. Electrical overvoltage, inadequate heat dissipation, and poor solder connections are other common causes of burning ceramic capacitors.
Some of the failure problems associated with capacitor banks are already known since they happen often. A few of the failures are traceable to the original source and sometimes that may be difficult to do. In many instances, the final result of a failure may be a catastrophic explosion of the capacitor into pieces or fire.
As soon as two adjacent electrodes are connected, the ceramic capacitor turns into a resistor. If this resistor is low-ohmic and the energy source has enough power, this can lead to destruction and even fire. Component manufacturers are aware of this issue.
Ceramic Capacitors: Although less common, ceramic capacitors can also experience leakage, especially if they are subjected to excessive voltage or heat. Ceramic capacitor leakage current can sometimes be a concern in high-performance applications.
The basic concept is that when connecting in parallel, you add the amp hour ratings of the batteries together, but the voltage remains the same. For example: 1. two 6 volt 4.5 Ah batteries wired in parallel are capable of providing 6 volt 9 amp hours (4.5 Ah + 4.5 Ah). 2. four 1.2 volt 2,000 mAh wired in parallel can provide 1.2. This is the big “no go area”. The battery with the higher voltage will attempt to charge the battery with the lower voltage to create a balance in the. This is possible and won't cause any major issues, but it is important to note some potential issues: 1. Check your battery chemistries – Sealed Lead Acid batteries for example have different charge points than flooded.
[PDF Version]Check your battery chemistries – Sealed Lead Acid batteries for example have different charge points than flooded lead acid units. This means that if recharging the two together, some batteries will never fully charge. The result here would be sulfation of those that never reach a full state of charge, reducing their lifespan.
Charge and maintain the battery with a three-stage charge controller or battery charger. The three-stage charge controller or battery charger prevents the battery from overcharging and compensates for self-discharge after the battery is fully charged. 2. Set the charging parameters properly.
for secondary (rechargeable) batteries – the stronger battery would charge the weaker one, draining itself and wasting energy. If you connect rechargeable batteries in parallel and one is discharged while the others are charged – the charged batteries will attempt to charge the discharged battery.
To prevent unbalance in the future, as the batteries are aging, use a Battery Balancer. The battery balancer is wired into a system as indicated in the image on the right. It measures the battery bank voltage and also the individual battery voltages.
On the charge controller side, the battery is considered as fully charged when the battery terminal voltage rises to 14.4V and is considered as fully discharged when the battery terminal voltage drops to 11.0V. However, the battery terminal voltage can be heavily affected by the charge current and discharge current.
If this isn't possible, double check the voltages of each unit with a voltmeter. With secondary (rechargeable) batteries – only use batteries of the same brand and age and make sure all the units are fully charged before connecting them together in parallel.
The classic capacitor failure mechanism is dielectric breakdown. The dielectric in the capacitor is subjected to the full potential to which the device is charged and, due to small capacitor physical sizes, high electrical stresses are common. Dielectric breakdowns may develop after many hours of satisfactory operation. Open capacitors usually occur as a result of overstress in an application. For instance, operation of DC rated capacitors at high AC current levels can cause a localized heating at the. The following list is a summary of the most common environmentally "critical factors" with respect to capacitors. The design engineer must take into consideration his own applications and the effects caused by combinations of various. Differential capacitance in,, and is a measure of the voltage-dependent of a , such as an or a. It is defined as the derivative of charge with respect to potential.
[PDF Version]The latter is called the "differential capacitance," but usually the stored charge is directly proportional to the voltage, making the capacitances given by the two definitions equal. This type of differential capacitance may be called "parallel plate capacitance," after the usual form of the capacitor.
lleling the two B-phase strin s into a single B-phase string. Do the same with the C-phase. For this calculation, th faulted capacitor unit will be (arbitrarily) in the A-phase. Therefore, keep the two A-phase ph ses separate: one will be healthy, the other will be faulted.Use (3) to calculate the total
In addition to these failures, capacitors may fail due to capacitance drift, instability with temperature, high dissipation factor or low insulation resistance. Failures can be the result of electrical, mechanical, or environmental overstress, "wear-out" due to dielectric degradation during operation, or manufacturing defects.
For example, if a large capacitor is used in the smoothing circuit of a power supply, a large wave-like voltage *4 can be converted to a flat DC voltage, but if the capacitor is open, a large voltage wave is directly applied to the circuit, which may cause semiconductors and other components to fail. *4 It's called ripple voltage.
The failure rate of capacitors can be divided into three regions by time and is represented by a bathtub curve as shown in Figure 37. (1) Early failures *31 exhibits a shape where the failure rate decreases over time. The vast majority of capacitor's initial defects belong to those built into capacitors during processing.
A capacitor can be mechanically destroyed or may malfunction if it is not designed, manufactured, or installed to meet the vibration, shock or acceleration requirement within a particular application. Movement of the capacitor within the case can cause low I.R., shorts or opens.
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The electric power used to run an appliance is called demand power or apparent power expressed in Volt-Ampere (S). The apparent power is a combination of two powers, true power expressed in Watt (P) and reactive power expressed in VAR (Q). S2(KVA)=P2(KW)+Q2(KVAR)S2(KVA)=P2(KW)+Q2(KVAR) Power factor. Power factor correctiondrives power factor to unity. The importance behind power factor correction lies within the effects of having a low power factor. All power factor improvement methods lay under the same principle. For every load with a lagging power factor, a load with a leading power factor must. There are several methods used for power factor correction. The 2 most used are capacitor banks and synchronous condensers. 1. Capacitor Banks: 1. Capacitor banks are systems that contain several capacitors used to.
[PDF Version]In this paper, a combined reactive power compensation device was installed, which is composed of a static var generator (SVG) and a parallel capacitor bank. The SVG has the characteristics of fast and smooth adjustment, and the application of the capacitor bank reduces the overall investment cost and has a great economy.
Parallel Active Power Compensators (APC) seem to have been a very widely discussed matter of many publications in the last 20 years [ 1 – 7 ]. The features of these devices can be considered in respect to a few aspects, such as power stage structure, reference current calculation and control method, overall cost of application, number of functions.
Voltage mode parallel active compensators have one significant disadvantage: the power factor depends on the load's active power and line voltage. This causes PF deterioration, especially in the case of line voltage dips and swells (although the load voltage in PCC still is stable).
Instead of using capacitor banks, there is a different alternative to compensate the reactive power that is based on the use of synchronous compensators. These are synchronous machines that, operating with null active power, can behave either as variable capacitors or coils, by simply changing their excitation current .
1. Capacitor Banks: Capacitor banks are systems that contain several capacitors used to store energy and generate reactive power. Capacitor banks might be connected in a delta connection or a star (wye) connection. Power capacitors are rated by the amount of reactive power they can generate. The rating used for the power of capacitors is KVAR.
Program 1: In the case that there is no reactive power compensation device in either wind farm when the active power is about 385 MW, the busbar voltage drops rapidly and quickly reaches the limit instability point. Program 2: When the SC-type capacitor bank is put in, it leads to a large oscillation of the wind turbine terminal voltage.
By connecting several capacitors in parallel, the resulting circuit is able to store more energy since the equivalent capacitance is the sum of individual capacitances of all capacitors involved.
When capacitors are connected together in parallel the total or equivalent capacitance, CT in the circuit is equal to the sum of all the individual capacitors added together. This is because the top plate of capacitor, C1 is connected to the top plate of C2 which is connected to the top plate of C3 and so on.
When 4, 5, 6 or even more capacitors are connected together the total capacitance of the circuit CT would still be the sum of all the individual capacitors added together and as we know now, the total capacitance of a parallel circuit is always greater than the highest value capacitor.
In the series resistor circuit, the total resistance increases as more resistors are added in series. For the parallel capacitor circuit, the total capacitance increases. Schematic diagram of equivalent circuit of capacitor parallel circuit
The below video explains the parallel combination of capacitors: By combining several capacitors in parallel, the resultant circuit will be able to store more energy as the equivalent capacitance is the sum of individual capacitances of all capacitors involved. This effect is used in the following applications.
Capacitors are fundamental components in electronic circuits. Understanding how they behave in series and parallel configurations is crucial for circuit design and analysis. This comprehensive guide explores the characteristics of series and parallel capacitor circuits, their similarities to resistor circuits, and their unique properties.
which means that the equivalent capacitance of the parallel connection of capacitors is equal to the sum of the individual capacitances. This result is intuitive as well - the capacitors in parallel can be regarded as a single capacitor whose plate area is equal to the sum of plate areas of individual capacitors.
Degradation is the decrease in peak performance over some time. With solar panels, there is a natural degradation loss of about 0.50 percent per year. Unfortunately, there is not much you can do about fixin. Whether using a single solar panel to power a small device or an entire array, the voltage may drop when engaged if the solar panels are not fully charged and producing power at their pe. Shading is a term that we hear a lot about in solar. Shading occurs when something, usually a tree or shadow of a building, blocks the sunlight that would otherwise strike the solar p. If the solar panels become overheated, it causes them to decrease the amount of energy they produce. For example, if the panels are lying on blacktop as the blacktop warms up during. You can think of a solar controller like the gas pedal on a vehicle. It reduces or increases the amount of power that reaches the battery. A gas pedal, when not depressed, allow.
[PDF Version]Say you have been using your solar panel and one day its performance drops and it starts giving you low power. You might be facing a low voltage problem. Low Voltage in Solar panels often happens due to the panel not getting sufficient light. Shading, Dirt Buildup, and Environment often cause this.
We all know Solar Panel produces voltage by absorbing Light from the sun. If they don't get proper sunlight. Your panel won't be producing the voltage it should. Here comes one of the biggest problems: Shading. Shading is when trees, vegetation, towers, building, or other stuff blocks sunlight from your solar panel.
Consistent monitoring and maintenance are key to optimizing solar battery performance. Using tools like battery monitors, a BMS, and cooling systems helps ensure longevity, efficiency, and safe operation for your solar power system. A reliable battery monitor can be invaluable in maintaining solar battery health.
When a battery receives too little energy, it undercharges, often due to insufficient solar input, poor solar panel performance, or an improper charging setup. Undercharged batteries can lead to reduced functionality, shorter lifespan, voltage drops, and energy shortages, ultimately affecting your power supply and system efficiency.
Make sure sunlight is hitting the solar panel perpendicularly. Now let's talk about dirt buildup in panels. Rain usually clears out your panel. But if the dusty wind is the everyday routine in your place, you might have to clean your panel. If your panel is way too dirty, you should call up a solar cleaning service.
If your solar panel or array drops volts when under a load, the problem may be any number of issues. The best place to start is as follows: Start with your testing equipment. Make sure it is working correctly and that the connections during testing are good.
The minimum voltage of a LiFePO4 cell is typically around 2. Operating the cell below this threshold can result in irreversible damage and significantly reduce its lifespan.
3.2V lithium iron phosphate battery refers to the nominal voltage of the battery cell. That is, the average voltage from the beginning to the end of discharge (the voltage we often say is dead) after the battery cell is fully charged.、 B. 3.65 V LiFePO4 battery
Voltage chart is critical in determining the performance, energy density, capacity, and durability of Lithium-ion phosphate (LiFePo4) batteries. Remember to factor in SOC for accurate reading and interpretation of voltage. However, please abide by all safety precautions when dealing with all kinds of batteries and electrical connections.
The rated voltage of a lithium iron phosphate battery is 3.2 V, and the total voltage is 3.65 V. In other words, the potential difference between the positive and negative electrodes of lithium batteries in practice cannot exceed 4.2 V. This requirement is based on material and use safety. 2. What is the voltage of the LiFePO4 battery?
Lithium Iron Phosphate batteries also called LiFePO4 are known for high safety standards, high-temperature resistance, high discharge rate, and longevity. High-capacity LiFePO4 batteries store power and run various appliances and devices across various settings.
Lithium Iron Phosphate (LiFePO4) batteries are increasingly popular due to their high energy density, long cycle life, and safety features.
The LiFePO4 Voltage Chart stands as an essential resource for comprehending the charging levels and condition of Lithium Iron Phosphate batteries. This visual aid showcases the voltage spectrum from full charge to complete discharge, enabling users to determine the present charge status of their batteries.
The instrument transformer is a static device utilized for reduction of higher currents and voltages for safe and practical usage which are measurable with traditional instruments such as digital multi-meter etc. The value range is from 1A to 5A and voltages such as 110V etc. The Transformers are also used for actuation. A current transformer is a gadget utilized for the transformation of higher value currents into lower values. It is utilized in an analogous manner to that of AC instruments, control apparatus, and meters. These are having. The potential Transformers are similar in characteristics as current Transformers but are utilized for converting high voltages to lower voltages for protection of relay system and for lower. The insulators are the materials which do not permit flow of electrons through it. Insulators are resisting electric property. There are numerous types. Conductors are the materials which permit flow of electrons through it. The best conductors are copper and aluminum etc. The conductors are utilized for transmission of energy from place to place over substations.
[PDF Version]We have seen that a capacitor bank is used for the improvement of power factor and reactive power compensation in a substation. As the role of this bank is very important, it becomes critical to see that the bank is maintained well. Also, it has to be seen which parameters of this bank should be specified for installing it into the substation.
It discusses the main components of the substation including isolators, lightning arresters, CT metering, step-down transformers, capacitor banks, and circuit breakers. It explains the purpose and operation of each component. The document also includes diagrams of the single line diagram and layout of the 11kV substation.
Following is the substation component diagram is known as a relay. The capacitor bank is defined as a set of numerous identical capacitors which are connected either in parallel or series inside an enclosure and are utilized for the correction of power factor as well as protection of circuitry of the substation.
The document provides details about the components and functions of an 11kV substation. It discusses the main components of the substation including isolators, lightning arresters, CT metering, step-down transformers, capacitor banks, and circuit breakers. It explains the purpose and operation of each component.
In this section, we delve into a practical case study involving the selection and calculation of a capacitor bank situated within a 132 by 11 KV substation. The primary objective of this capacitor bank is to enhance the power factor of a factory.
kes place through Electrical Substations. An Electrical Substation is an assemblage of electrical components including busbars, switchgear, power transformers, auxiliaries, etc. Basically an electrical substation consists of a number of incoming circuits and outgoing c
In the electronics industry, lead-free products are being adopted and developed in great numbers. Conductive adhesives have gained attention as lead-free products (solder alternative products) that are better fo. Our company has commoditized the multilayer ceramic capacitor GCG series for the above-mentioned markets. This series includes external electrodes consisting of Ag (silver) -Pd (palladium) and exhibits reliable adhesive. The conductive filler metal contained in the conductive adhesive and the Ag used in the external electrode carry the risk of insulation properties decreasing if a difference in electric potential occurs in an extremely high-h. With the conductive adhesive mount, short circuits can occur between electrodes if adhesive leaches out at the lower surface of the part during mounting. Figure 3 (1) and (2) show schematic diagrams of before and after mountin. By combining the broad-ranging temperature characteristics and rated voltage, which are the advantages of our multilayer capacitors, with the above-mentioned Ag external electrode technology, our c.
[PDF Version]The adhesive is needed to prevent the capacitor vibrating (the leads acting like a spring) and moving around when device is subject to external forces. I'm looking for something like DOW CORNING 744 WHITE Adhesive, RTV Silicone or WACKER Silicone Adhesive Sealants (WACKER Silicone Adhesive Sealants - Intertronics) Take a look at these options.
This will isolate the capacitor from forces that it would otherwise experience during vibration, board flexing/bending, thermal expansion/contraction, etc. By providing the crimped leads at the factory, the board house does not require a machine to add those in-house.
Hi Michael, I think we misunderstood each other. The capacitors are leaded components that will be soldered through holes in PCB. The adhesive is needed to prevent the capacitor vibrating (the leads acting like a spring) and moving around when device is subject to external forces.
With the conductive adhesive mount, short circuits can occur between electrodes if adhesive leaches out at the lower surface of the part during mounting. Figure 3 (1) and (2) show schematic diagrams of before and after mounting a part with a conductive adhesive mount.
Our company has commoditized the multilayer ceramic capacitor GCG series for the above-mentioned markets. This series includes external electrodes consisting of Ag (silver) -Pd (palladium) and exhibits reliable adhesiveness with conductive adhesives.
Conductive adhesives produce strong part adhesiveness by an energy-saving, low-temperature process. They are designed with an epoxy resin containing an Ag filler.
A lithium-ion capacitor is a hybrid electrochemical energy storage device which combines the mechanism of a anode with the double-layer mechanism of the of an electric double-layer capacitor (). The combination of a negative battery-type LTO electrode and a positive capacitor type activated carbon (AC) resulted in an energy density of.
The lithium-ion capacitor combines a negative electrode from the battery, composed of graphite pre-doped with lithium-ions Li+, and a positive electrode from the supercapacitor, composed of activated carbon. This allows the LIC to acquire a higher energy density than the SC, while conserving a high power density and a long lifetime.
A lithium-ion capacitor (LIC or LiC) is a hybrid type of capacitor classified as a type of supercapacitor. It is called a hybrid because the anode is the same as those used in lithium-ion batteries and the cathode is the same as those used in supercapacitors. Activated carbon is typically used as the cathode.
LIC's have higher power densities than batteries, and are safer than lithium-ion batteries, in which thermal runaway reactions may occur. Compared to the electric double-layer capacitor (EDLC), the LIC has a higher output voltage. Although they have similar power densities, the LIC has a much higher energy density than other supercapacitors.
"High-power and long-life lithium-ion capacitors constructed from N-doped hierarchical carbon nanolayer cathode and mesoporous graphene anode". Carbon. 140: 237–248. Bibcode: 2018Carbo.140..237L. doi: 10.1016/j.carbon.2018.08.044. ISSN 0008-6223. S2CID 105028246.
Lithium-ion capacitors offer superior performance in cold environments compared to traditional lithium-ion batteries. As demonstrated in recent studies, LiCs can maintain approximately 50% of their capacity at temperatures as low as -10°C under high discharge rates (7.5C).
Capacitors are power storage devices that are classified as secondary batteries.Various types of capacitors have been developed depending on the materials used, but there are generally two types of capacitors with large capacities: "Electric Double Layer Capacitors (EDLC)" and "Lithium-ion Capacitors".
Capacitors serve as temporary energy storage devices in applications requiring quick bursts of power, such as camera flashes, defibrillators, and pulse circuits.
Capacitors are widely used in various electronic circuits, such as power supplies, filters, and oscillators. They are also used to smooth out voltage fluctuations in power supply lines and to store electrical energy in devices such as cell phones and laptops. In short, capacitors have various applications in electronics and electrical systems.
Let us see the different applications of capacitors. Some typical applications of capacitors include: 1. Filtering: Electronic circuits often use capacitors to filter out unwanted signals. For example, they can remove noise and ripple from power supplies or block DC signals while allowing AC signals to pass through.
Capacitors are connected in parallel with the DC power circuits of most electronic devices to smooth current fluctuations for signal or control circuits. Audio equipment, for example, uses several capacitors in this way, to shunt away power line hum before it gets into the signal circuitry.
When you use a capacitor in a circuit, some important parameters should be considered. First is its Value. Select a proper value, either low or high value depending on the circuit design. The value is printed on the body of most of the capacitors in uF or as EIA code.
The designing of small capacitors can be done using ceramic materials by sealed with epoxy resin whereas the commercial purpose capacitors are designed with a metallic foil using thin Mylar sheets otherwise paraffin-impregnated paper. The capacitor is one of the most used components in electronic circuit design.
Power factor correction: Capacitors are often used in power factor correction circuits to improve the power factor of AC electrical systems. This can help to reduce energy losses and improve the efficiency of electrical systems. 7. Bypassing: Capacitors can bypass or short out unwanted signals in a circuit.
Yes, you can use capacitors with solar panels. But, only the supercapacitors are eligible to perform with solar panels. The supercapacitors can discharge the high-voltage current from the solar cells, which is much higher than the loading current. It will help the system when there is an intermittent load. Solar power. Supercapacitors are high-capacity capacitors with higher capacitance and lower voltage limits. The solar system is one of the most efficient energy sources for remote places where. There are several advantages and disadvantages of using supercapacitors with solar panels. Among them, we present the most significant pros and cons of supercapacitors here. Finally, supercapacitors will increase batteries' lifetime and reduce the battery drainage rate in a solar system. You will get more power from the solar panels in an existing system if you combine batteries and.
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The amount of water in the bucket is analogous to the amount of charge stored in a capacitor, and the water level in the bucket is analogous to the voltage across the capacitor.
In this article, we provide an analogy for a capacitor and see how far we could go with this analogy in understanding and solving capacitor circuits. capacitor stores charge similar to a glass that stores water in the follow- ing sense. The charge ( Q ) stored on a capacitor is proportional to the volt- age across the capacitor ( V ) .
As another approach, it is already well known that electrical circuits can be taught using water analogies , where water flow out of container is as analogy to capacitor discharge, which can be also used to fill another container as analogy a capacitor is charge by other capacitor [6, 7, 8].
Explaining a capacitor in terms of this analogy with a flow of water is more difficult; however, we will look at associating the capacitor with an unstretched membrane blocking the flow of water as is shown in Figure 1. Figure 1. A pump in a closed loop with a membrane blocking the flow. Suppose we turn on the pump.
Figure 1: Charging a capacitor is analogous to filling up a glass with water. With water weight (*), we have assumed unity water density ( t ) and gravity (g). She has been an SSCS member since engineering. The program started in it became a Society in the early 1990s.
In closing, it should be mentioned that, like any analogy, this one is not without limitations. For example, this analogy is only valid if we assume one side of the capacitor is grounded or tied to a fixed voltage. This is because we assume the bottom of a glass sits on the ground or at a fixed height.
capacitor stores charge similar to a glass that stores water in the follow- ing sense. The charge ( Q ) stored on a capacitor is proportional to the volt- age across the capacitor ( V ) . Similarly, the amount of water held in a glass of water is proportional to the water height if we assume a fully cylindri- cal glass. The factor of proportional-
It doesn't have positive and negative terminals because it's used in an AC circuit, not DC. It's used to create a phase-shift in the motor's secondary windings to get it spinning.
Capacitors, especially electrolytic ones, have a positive and negative terminal. It's crucial to connect them correctly to avoid damage. Incorrect polarity can lead to the capacitor overheating, leaking, or even exploding. The longer lead is usually positive. Always refer to the datasheet or circuit diagram for specific polarity markings.
Non-polarized capacitors do not have a positive or negative terminal and can be connected to a circuit in any polarity. For optimal performance, you must orient polarized capacitors in the correct direction since they have positive and negative terminals, making them essential components.
Another way to identify the positive and the negative terminals of a capacitor is the length of the two leads. The longer lead is the positive terminal, while the shorter lead is the negative terminal. How To Identify the Value of the Capacitor?
Capacitors often have the following polarity markings: "+" And "-" signs: The most common polarity marking on capacitors is a plus (+) and a minus (-) sign, which indicate the positive and negative terminals of the capacitor, respectively. The positive terminal is usually longer than the negative terminal.
The simplest way to identify the polarity of a capacitor is by visual inspection. Electrolytic capacitors, a type of polarized capacitor, usually have clear markings indicating the positive (anode) and negative (cathode) terminals. The negative terminal is typically marked with a minus (-) sign, a series of minus signs, or a colored stripe.
Capacitor polarity refers to the orientation of positive and negative terminals in a capacitor. In polarized capacitors, the positive terminal (anode) and the negative terminal (cathode) must be connected correctly to ensure proper functioning. Conversely, non-polarized capacitors don't have this restriction and can be connected in any direction.