‘4. The application relates to the field of vehicle propulsion. Primarily, the invention is described in the context of propelling a spacecraft in space, as noted on page 25, lines 13-19 of the description as filed. Specifically, the present invention proposes an apparatus that does not require an exhaust for expulsion of reaction mass. It appears to require a magnet adjacent to a cavity which emanates a magnetic field into the cavity, wherein the cavity further contains a cathode and an anode, such that electrons are emitted from the cathode and travel through the magnetic field and to the anode. This arrangement is alleged to result in momentum and kinetic energy from the electrons being transferred to the magnet, and hence the apparatus housing (when the device is accelerating). In summary, acceleration of the device is alleged to be achieved from deceleration of the electrons by the magnetic field. The reverse applies when the device is decelerating (transfer of kinetic energy from the apparatus to the electrons is alleged to decelerate the apparatus).’
‘1. An apparatus for generating a force, the apparatus comprising: a housing having a cavity therein; a magnet adjacent the housing, the magnet and housing arranged so that, in use, the cavity contains a magnetic field from the magnet, magnetic field lines within the cavity comprising non-parallel magnetic field lines; a cathode capable of emitting electrons into the cavity; and an anode, the arrangement being such that, in use, the cathode emits electrons into the cavity and the electrons are deflected by the magnetic field from the magnet, such that a force acts between the magnetic field from the magnet and a magnetic field from the electrons and kinetic energy is transferred between the apparatus and the electrons.’
‘15 Claim 1 requires ‘an apparatus for generating a force’
‘[34] I think that the effect of these authorities is as follows. It is not the law that any doubt, however small, on an issue of fact would force the Comptroller to allow the application to proceed to grant. Rather he should examine the material before him and attempt to come to a conclusion on the balance of probabilities. If he considers that there is a substantial doubt about an issue of fact which could lead to patentability at that stage, he should consider whether there is a reasonable prospect that matters will turn out differently if the matter is fully investigated at a trial. If so he should allow the application to proceed. [35] I think this approach to the consideration of objections to patentability is in accordance with the statutory framework. The examiner will first raise an objection and put it to the applicant. The applicant then has an opportunity of persuading the Comptroller that his basis for considering that the objection applies is not sound. If the applicant does not persuade him to withdraw the objection he may refuse the application (section 18(3)). But at that stage he should consider whether, because there is a substantial doubt about an issue of fact, there is a reasonable prospect that matters may turn out differently at a trial, when there will be a full exploration of the matter with the benefit of expert evidence. If there is such a reasonable prospect he should allow the matter to proceed to grant. It goes without saying that mere optimism and a reasonable prospect of matters turning out differently are not the same thing. The reasonable prospect must be based on credible material before the Office. Macawberism, here as elsewhere, does not provide any basis for supposing that anything helpful will turn up. Moreover the greater has been the opportunity for the applicant to produce such material at the application stage, the smaller scope there is for supposing that giving him the benefit of the doubt will lead to a different conclusion.’
‘[47] Had the matter gone no further than the first two of the Hearing officer’s criteria, it could be said that he was recognising there was a debatable underlying question of fact on which it could not be said that the applicant had no reasonable prospect of success. But his question concerning acceptance of the theory by the scientific community, was nevertheless a reasonable, and in the circumstances practical question to ask. Certainly, the absence of either widespread discussion or acceptance in the scientific literature or other media was a factor he was entitled to take into account. Such a question is an indirect way of approaching the underlying theory and physical phenomena. Does the absence of any real discussion or acceptance (or indeed practical demonstration) of GUTCQM mean that one can conclude now that there is no reasonable chance that the applicant would be able to establish his position at trial? [48] It is clear that the Hearing Officer was alive to the danger of refusing an application in circumstances where the refusal depends on a disputed theory which may subsequently turn out to be correct: see the passage I have cited from [23] in the decision. In considering criterion (c) he was also alive to the fact that GUTCQM had been around for many years without evidence emerging as to its validity. That fact alone might be thought to make it unreasonable to suppose that the position would be different at a trial, particularly where, as here, the applicant had no reason which the Hearing Officer found plausible for explaining the absence of discussion or acceptance. There was certainly material before him on which he could have gone on to address, and decide, the question of whether there was any reasonable prospect that, on a fuller investigation, evidence would emerge which would support GUTCQM as a valid theory on the balance of probabilities. It would have been entirely fair for him to address and decide that question, given that the applicant had been given every opportunity to provide evidence is support of his theory.’
‘24 … the application does not describe any way in which the apparatus could exert a force on something external to itself. Page 10 of the description as filed explains how there is a force between the magnetic field of the magnet and the magnetic field due to the motion of the electrons emitted by the cathode. Newton's third law requires that the force exerted on the magnet by the electrons is equal and opposite to the force exerted on the electrons by the magnet. However, the electrons are contained within the apparatus itself, and will eventually reach the anode, where they will exert a force on the anode and the anode will exert an equal and opposite force back on the electrons (to decelerate them). The force exerted on the magnet by the magnetic field of the electron motion will be balanced by the force exerted on the anode by the electrons crashing into the anode, so there will be no net force exerted on the apparatus by the electrons.’
‘25 … Starting with Maxwell’s equations, he claims the apparatus exploits the laws of classical electricity and magnetism to surf a travelling transverse pressure wave in the electromagnetic field, so it works by directing and manipulating the electromagnetic field, to create a force in a direction. Specifically, Mr Kelmz [sic] alleges that the magnetic field acts to decelerate the electrons, and this results in acceleration of the device. Working as a thruster, it is alleged to create a transverse pressure gradient, which causes the magnet to be repelled away from the electrons emitted by the cathode, which in turn is what is alleged to create the force suitable for e.g. propelling a vehicle. 26 According to Mr Klemz, at the 2nd paragraph of page 12 of his skeleton arguments, all electromagnetic and mechanical momentum is conserved and accounted for. Momentum lost by the electrons as they decelerate around the axis is equal to the momentum gained by the housing as it accelerates along the axis. The device is mechanically sealed, but electromagnetically and thermodynamically the device is open as charge flows into the cavity via the cathode and flows out via the anode. Energy enters the cavity via the electric field between cathode and anode and exits via an antenna as radio waves and as waste heat. The electrons in the cavity are effectively in free space and at the instant they are emitted from the cathode they have a velocity of zero, so all of the energy and momentum they gain is from the force due to the electric field and they transfer this momentum to the housing via the magnetic field of the bar magnet via covariant electromotive (emf) and magnetomotive (mmf) forces as described by Faraday’s law and Lenz’s law.’
‘33 It is difficult to assess whether thrust is generated in the way the applicant describes based on the evidence provided in the video showing the laser dot alone, i.e. without a full and detailed view and analysis of the overall apparatus itself, e.g. from a concurrent second video showing the apparatus itself. I am of the view that the reason for displacement of the laser dot (and the device) is likely, if fully investigated at a trial with the benefit of expert evidence, to turn out to be due to reasons other than a thrust force. Potential other sources of the observed movement could include vibration of the device, a draft in the room, air convection, thermal expansion, non-recoverable deformation of test equipment part(s) due to heating.’
‘In operation, the momentum and kinetic energy from the electrons as they are slowed down is transferred to the bar magnet and the housing and so in this way, momentum and energy are conserved. Newton’s third law is also met, by the action force (repulsive force between the vortex and the bar magnet, pushing the bar magnet and housing forward) having an equal reaction force (induced emf slowing down the electrons in the vortex). Due to Faraday’s law and Lenz’s law, the action and reaction forces are in fact perpendicular to each other.’