- Kills
- 2
- +0 in the last 90 days
- Losses
- 1
- +0 in the last 90 days
- Efficiency
- ISK Efficiency 52%
- ISK destroyed
- 184.0M
- +0 in the last 90 days
- Activity
- Inactive
- 0 kills/day · last 90 days
Combat Record
Career-long numbers from eve-kill
Combat
- Kills
- 2
- Losses
- 1
- Danger Ratio
- 100%
- Final Blows
- 0
- Points
- 2
ISK
- Destroyed
- 184.0M
- Lost
- 168.1M
- Balance
- +15.9M
- ISK Efficiency
- 52%
Solo
- Solo Kills
- 0
- Solo Ratio
- 0%
- Avg Kills/Day
- —
Other
- NPC Losses
- 0
- NPC Loss Ratio
- 0%
- Activity
- Inactive
Activity
What the corporation flies, where it fights, latest kills and losses
Most Valuable
The priciest kills in the window
Matchups
Who they kill, who kills them, what they lose
Last 90d
Killed
Killed By
Hulls LostLosses broken down by hull class.
Battles
Engagements in the selected window, from our own killmail archive
Description
>»>»>»> Zeno Effect >»>»>»>»>»>»>»>»>»>»>»>»>»>»>»>»>»>»>»>
As an outgrowth of study of the Quantum Zeno effect, it has become clear that applying a series of sufficiently strong and fast pulses with appropriate symmetry can also decouple a system from its decohering environment.
The treatment of the Zeno effect as a paradox is not limited to the processes of quantum decay. In general, the term Zeno effect is applied to various transitions, and sometimes these transitions may be very different from a mere "decay". (whether exponential or non-exponential).
One realization refers to the observation of an object as it leaves some region of space. In the 20th century, the trapping of a particle in some region by its observation outside the region was considered as nonsensical, indicating some non-completeness of quantum mechanics. Even as late as 2001, confinement by absorption was considered as a paradox. Later, similar effects of the suppression of Raman scattering was considered an expected effect, not a paradox at all. The absorption of a photon at some wavelength, the release of a photon (for example one that has escaped from some mode of a fiber), or even the relaxation of a particle as it enters some region, are all processes that can be interpreted as measurement. Such a measurement suppresses the transition, and is called the Zeno effect in the scientific literature.
In order to cover all of these phenomena (including the original effect of suppression of quantum decay), the Zeno effect can be defined as a class of phenomena in which some transition is suppressed by an interaction — one that allows the interpretation of the resulting state in the terms transition did not yet happen and transition has already occurred, or The proposition that the evolution of a quantum system is halted if the state of the system is continuously measured by a macroscopic device to check whether the system is still in its initial state.
Public Channel: ZE_pub
SWE
As an outgrowth of study of the Quantum Zeno effect, it has become clear that applying a series of sufficiently strong and fast pulses with appropriate symmetry can also decouple a system from its decohering environment.
The treatment of the Zeno effect as a paradox is not limited to the processes of quantum decay. In general, the term Zeno effect is applied to various transitions, and sometimes these transitions may be very different from a mere "decay". (whether exponential or non-exponential).
One realization refers to the observation of an object as it leaves some region of space. In the 20th century, the trapping of a particle in some region by its observation outside the region was considered as nonsensical, indicating some non-completeness of quantum mechanics. Even as late as 2001, confinement by absorption was considered as a paradox. Later, similar effects of the suppression of Raman scattering was considered an expected effect, not a paradox at all. The absorption of a photon at some wavelength, the release of a photon (for example one that has escaped from some mode of a fiber), or even the relaxation of a particle as it enters some region, are all processes that can be interpreted as measurement. Such a measurement suppresses the transition, and is called the Zeno effect in the scientific literature.
In order to cover all of these phenomena (including the original effect of suppression of quantum decay), the Zeno effect can be defined as a class of phenomena in which some transition is suppressed by an interaction — one that allows the interpretation of the resulting state in the terms transition did not yet happen and transition has already occurred, or The proposition that the evolution of a quantum system is halted if the state of the system is continuously measured by a macroscopic device to check whether the system is still in its initial state.
Public Channel: ZE_pub
SWE