mhurhangee/ep-ind-claims huggingface dataset:
Production method for metal sheets made of magnesium and high-strength aluminium in a high vertical range of industrial manufacture where all technological process steps occur in continuous, sequential cycling and control in a multi-step tool in compliance with material-specific and part-specific operating temperatures and where the finished metal sheet parts are dischargeable and removable in a discharging and ejecting position from the multi-step tool by means of part-specific transport means, characterised in That, directly after uncoiling from coil the unfolded sheets cut from the straightened metal tape are held, positioned, and guided in a rail path or between the gripper jaws of the multi-step tool, That the metal tape or the unfolded sheets • Successively experience a basic heating on or between heating components in an input position of the multi-step tool, and • In a sequence of further strung production positions, a multiple cutting, shaping and blanking with simultaneous sufficient, complementary heating to maintain constant the heating temperature of the metal tape, the unfolded sheets or other metal parts produced in the input position at the active surfaces of the production positions allow that all heating components in the production positions and the control of their energy supply is switched on and off depending on the heat difference owed to the situationally different heating temperatures at the active surfaces of the single tool steps, and • That, starting from the base point positions of the heating components, a partial heating only and a compensating, radially structured and also opposing heat expansion leading to low heat impact is feasible through a segmented structure, a separated, isolating arrangement and a small dimensioning of the single tool steps in both, the upper and lower part of the multi-step tool in its production positions. • Successively experience a basic heating on or between heating components in an input position of the multi-step tool, and • In a sequence of further strung production positions, a multiple cutting, shaping and blanking with simultaneous sufficient, complementary heating to maintain constant the heating temperature of the metal tape, the unfolded sheets or other metal parts produced in the input position at the active surfaces of the production positions allow that all heating components in the production positions and the control of their energy supply is switched on and off depending on the heat difference owed to the situationally different heating temperatures at the active surfaces of the single tool steps, and • That, starting from the base point positions of the heating components, a partial heating only and a compensating, radially structured and also opposing heat expansion leading to low heat impact is feasible through a segmented structure, a separated, isolating arrangement and a small dimensioning of the single tool steps in both, the upper and lower part of the multi-step tool in its production positions.
An apparatus for producing nano-bubbles in a volume of liquid, the apparatus comprising: a motor comprising a rotatable shaft; an axially rotatable permeable member including a body having a wall and a plurality of pores through which gas introduced into the axially rotatable permeable member can flow, the axially rotatable permeable member couplable to a gas inlet configured to introduce gas from a gas source into the axially rotatable permeable member, the axially rotatable permeable member coupled to the rotatable shaft of the motor and adapted to rotate along with the rotatable shaft; characterized by a rotatable tube support, including an elongate body having a wall and defining an inner cavity, the wall defining a plurality of perforations, the inner cavity of the rotatable tube support configured to house the axially rotatable permeable member, the rotatable tube support coupled to and rotatable along with the rotatable shaft of the motor, wherein the rotatable tube support, when rotated, is adapted to introduce the liquid into the inner cavity of the rotatable tube support and move the liquid away from an outer surface of the body of the axially rotatable permeable member, wherein the axially rotatable permeable member, when rotated, is adapted to simulate turbulent flow above the turbulent threshold in the liquid that allows the liquid to shear gas from the outer surface of the axially rotatable permeable member, thereby forming nano-bubbles in the liquid. a motor comprising a rotatable shaft; an axially rotatable permeable member including a body having a wall and a plurality of pores through which gas introduced into the axially rotatable permeable member can flow, the axially rotatable permeable member couplable to a gas inlet configured to introduce gas from a gas source into the axially rotatable permeable member, the axially rotatable permeable member coupled to the rotatable shaft of the motor and adapted to rotate along with the rotatable shaft; characterized by a rotatable tube support, including an elongate body having a wall and defining an inner cavity, the wall defining a plurality of perforations, the inner cavity of the rotatable tube support configured to house the axially rotatable permeable member, the rotatable tube support coupled to and rotatable along with the rotatable shaft of the motor, wherein the rotatable tube support, when rotated, is adapted to introduce the liquid into the inner cavity of the rotatable tube support and move the liquid away from an outer surface of the body of the axially rotatable permeable member, wherein the axially rotatable permeable member, when rotated, is adapted to simulate turbulent flow above the turbulent threshold in the liquid that allows the liquid to shear gas from the outer surface of the axially rotatable permeable member, thereby forming nano-bubbles in the liquid.
A refrigerating apparatus control circuit comprising: a refrigerating driving control section that controls driving of a refrigerating apparatus; a control constant storage section that stores, for a plurality of objects, data in which information (Li) indicating an object to be refrigerated by said refrigerating apparatus and a control constant (Ci, Di, Ei,...) that said refrigerating driving control section adopts for that object are associated together; and an operation section that operates to specify said object, said refrigerating driving control section reading from said control constant storage section said control constant corresponding to said object specified by said operation section, and controlling driving of said refrigerating apparatus on the basis of reading said control constant, wherein in each said data, said control constant has first control constants (Cil, Ci2, Ci3) determining a plurality of setting temperatures (F1, F2, F3), and second control constants (Ti1, Ti2, Ti3) determining a plurality of setting times (τ1, τ2, τ3) that said setting temperatures should respectively last, characterized in that in each said data, said plurality of setting times (t 1, t 2, t 3) are set corresponding to transportation of said object to which said data corresponds; and the driving of said refrigerating apparatus is controlled in correspondence with said object on the basis of said setting temperatures (F1, F2, F3) and said setting times (t 1, t 2, t 3). a refrigerating driving control section that controls driving of a refrigerating apparatus; a control constant storage section that stores, for a plurality of objects, data in which information (Li) indicating an object to be refrigerated by said refrigerating apparatus and a control constant (Ci, Di, Ei,...) that said refrigerating driving control section adopts for that object are associated together; and an operation section that operates to specify said object, said refrigerating driving control section reading from said control constant storage section said control constant corresponding to said object specified by said operation section, and controlling driving of said refrigerating apparatus on the basis of reading said control constant, wherein in each said data, said control constant has first control constants (Cil, Ci2, Ci3) determining a plurality of setting temperatures (F1, F2, F3), and second control constants (Ti1, Ti2, Ti3) determining a plurality of setting times (τ1, τ2, τ3) that said setting temperatures should respectively last, characterized in that in each said data, said plurality of setting times (t 1, t 2, t 3) are set corresponding to transportation of said object to which said data corresponds; and the driving of said refrigerating apparatus is controlled in correspondence with said object on the basis of said setting temperatures (F1, F2, F3) and said setting times (t 1, t 2, t 3).
Method for emission, by a terminal, of a message to a receiver station of a wireless communication system, said terminal being time synchronised with said receiver station, wherein said message is to be emitted over a channel shared with other terminals and on which the emission of messages to said receiver station is carried out at the beginning of time intervals predetermined for the terminal and the receiver station, called "slots", said emission method comprising: - an encoding of data to be included in the message to be emitted by means of a channel encoder, - a distribution of the encoded data among Nb sub-messages of the message to be emitted, by fragmentation of said encoded data into Nb fragments, Nb being an integer greater than or equal to two, - a selection of a slot for the emission of said message, - a selection of Nb emission frequencies, respectively associated with the Nb sub-messages of the message, wherein each frequency of emission of a sub-message is selected randomly by said terminal inside a predetermined frequency band, - an emission of the message at the beginning of the selected slot, by successively emitting the sub-messages on their respective associated emission frequencies. - an encoding of data to be included in the message to be emitted by means of a channel encoder, - a distribution of the encoded data among Nb sub-messages of the message to be emitted, by fragmentation of said encoded data into Nb fragments, Nb being an integer greater than or equal to two, - a selection of a slot for the emission of said message, - a selection of Nb emission frequencies, respectively associated with the Nb sub-messages of the message, wherein each frequency of emission of a sub-message is selected randomly by said terminal inside a predetermined frequency band, - an emission of the message at the beginning of the selected slot, by successively emitting the sub-messages on their respective associated emission frequencies.
Container for drinking glasses (4,6) including a foot (16,18), in particular for sparkling wine glasses, including a base body, said base body including a bottom and first and second side walls (12,14) extending substantially perpendicular to the bottom, wherein retaining means for retaining the feet of the drinking glasses (4, 6) are associated with the side walls (12, 14), wherein the retaining means are embodied and arranged such that in a transport position the drinking glasses are supported by the bottom and extend in a direction substantially perpendicular to the longitudinal direction of the container, wherein the bottom includes at least one folding line (48,50) extending in the longitudinal direction of the bottom and wherein the bottom is foldable along the at least one folding line such that in a presentation position the drinking glasses (4, 6) have a substantially upright position and are supported by the side walls (12, 14), wherein the retaining means are integral with the side walls (12, 14) and wherein the retaining means are embodied and arranged such that inserted drinking glasses which, seen in the longitudinal direction of the container, are adjacent to each other are alternately supported by the first and second side walls (12, 14).
An electropneumatic system for controlling a double action pneumatic actuator, which has a first pneumatic working chamber and a second pneumatic working chamber, which is controllable independently of the first pneumatic working chamber, comprising a pneumatic precontrol stage for generating a pneumatic precontrol signal for forwarding to a pneumatic main control stage, characterised in that dividing electronics for oppositely dividing an electrical control signal U Y, received by the electropneumatic system or generated by regulating electronics of the electropneumatic system, around an electrical control average cp into two electrical mirror image signals are connected upstream of the pneumatic precontrol stage and in that the dividing electronics are designed for setting the control average cp, wherein the precontrol stage is designed to generate two precontrol signals, on the basis of the control average cp and the mirror image signals, which can be set oppositely around a pneumatic average.
An assembly for a gas turbine, comprising: a flange with a first side and a second side, a gas supply pipe adapted to pass through a bore in the flange for supplying gas to a combustion chamber of the gas turbine and a sleeve surrounding the gas supply pipe, having a first end and a second end, wherein the first end is located at a first longitudinal position of the sleeve outside the bore in the flange, distal from the combustion chamber and sealingly coupled to the gas supply pipe, and wherein the sleeve is adapted to be sealingly coupled to the flange at the second end such that the sleeve extends along a thickness of the flange, wherein the sleeve has a longitudinal section which is radially extended around the circumference of sleeve, wherein said radial extension is such that the first end of the sleeve is adapted to couple to the gas supply pipe 126 at an oblique angle characterized in that the first end is welded to the gas supply pipe and the second end is welded to the flange. a flange with a first side and a second side, a gas supply pipe adapted to pass through a bore in the flange for supplying gas to a combustion chamber of the gas turbine and a sleeve surrounding the gas supply pipe, having a first end and a second end, wherein the first end is located at a first longitudinal position of the sleeve outside the bore in the flange, distal from the combustion chamber and sealingly coupled to the gas supply pipe, and wherein the sleeve is adapted to be sealingly coupled to the flange at the second end such that the sleeve extends along a thickness of the flange, wherein the sleeve has a longitudinal section which is radially extended around the circumference of sleeve, wherein said radial extension is such that the first end of the sleeve is adapted to couple to the gas supply pipe 126 at an oblique angle characterized in that the first end is welded to the gas supply pipe and the second end is welded to the flange.
A method of transmitting multiple data streams via multiple optical transmission units (140A, 149B, 140C) adapted for optical communication using wavelength division multiplexing, the method comprising: a first encryption step of encrypting each of a plurality of data streams to obtain a respective encrypted data stream; and a mapping step of mapping the plurality of encrypted data streams obtained in the first encryption step to a plurality of transmission streams for transmission via the optical transmission units (140A, 149B, 140C), wherein the transmission streams and optical transmission units (140A, 149B, 140C) are in a one-to-one relationship, and wherein each transmission stream is mapped to by at least two of the plurality of encrypted data streams; a second encryption step of encrypting each of the plurality of transmission streams to obtain a respective encrypted transmission stream; and a transmission step of transmitting each of the plurality of encrypted transmission streams obtained in the second encryption step via a respective optical transmission unit. a first encryption step of encrypting each of a plurality of data streams to obtain a respective encrypted data stream; and a mapping step of mapping the plurality of encrypted data streams obtained in the first encryption step to a plurality of transmission streams for transmission via the optical transmission units (140A, 149B, 140C), wherein the transmission streams and optical transmission units (140A, 149B, 140C) are in a one-to-one relationship, and wherein each transmission stream is mapped to by at least two of the plurality of encrypted data streams; a second encryption step of encrypting each of the plurality of transmission streams to obtain a respective encrypted transmission stream; and a transmission step of transmitting each of the plurality of encrypted transmission streams obtained in the second encryption step via a respective optical transmission unit.
Tank apparatus of an oil circuit of an aircraft engine, for storing oil in an internal space bounded by a wall, having at least one device (46; 62; 70; 80; 90) for introducing oil into the internal space, characterized in that, by means of the device (46; 62; 70; 80; 90) for introducing oil, oil is able to be applied to that region of the wall that is arranged above a minimum filling level set during operation of an aircraft engine.
A gas turbine engine comprises: a fan drive turbine driving a gear reduction, said gear reduction, in turn, driving a fan rotor, said fan rotor delivering air into a bypass duct as bypass air and into a compressor section as core flow, wherein said compressor section includes a low pressure compressor and a high pressure compressor; a forward bearing positioned between said gear reduction and said fan rotor and supporting said gear reduction, and a second bearing positioned aft of said gear reduction and supporting said gear reduction, said second bearing being a thrust bearing; a fan drive turbine drive shaft driving said gear reduction; and a catcher provided to resist movement of said gear reduction and said fan rotor in an outer direction in the event of a failure of said second bearing, wherein said gear reduction is an epicyclic gear reduction, characterized in that: said low pressure compressor is driven by said gear reduction to rotate with said fan rotor. a fan drive turbine driving a gear reduction, said gear reduction, in turn, driving a fan rotor, said fan rotor delivering air into a bypass duct as bypass air and into a compressor section as core flow, wherein said compressor section includes a low pressure compressor and a high pressure compressor; a forward bearing positioned between said gear reduction and said fan rotor and supporting said gear reduction, and a second bearing positioned aft of said gear reduction and supporting said gear reduction, said second bearing being a thrust bearing; a fan drive turbine drive shaft driving said gear reduction; and a catcher provided to resist movement of said gear reduction and said fan rotor in an outer direction in the event of a failure of said second bearing, wherein said gear reduction is an epicyclic gear reduction, characterized in that: said low pressure compressor is driven by said gear reduction to rotate with said fan rotor.
The use of polymers that can be obtained by the polymerization of N-vinylpyrrolidone with a co-monomer selected from the group comprising N-vinylcaprolactam, N-vinylpiperidone, N-vinylsuccinimide, N-vinylglutarimide, N-vinylacetamide, N-alkyl-N-vinylacetamide, N-vinylformamide, N-alkyl-N-vinylformamide, dialkylacrylamide and mixtures of at least two of said co-monomers - for stabilizing enzymes and/or - for slowing down enzyme degradation and/or - for preventing enzyme degradation in liquid washing or cleaning agents that contain water and surfactants. - for stabilizing enzymes and/or - for slowing down enzyme degradation and/or - for preventing enzyme degradation
A protective cage for a barrel drilling machine, the barrel drilling machine including a frame, a drilling head rotatable about a determined drilling axis and a barrel movably mounted, and preferably pivotally mounted, relative to the frame between a first position in which part of the barrel comes into the drilling axis, and a second position in which the barrel is moved transversely to the drilling axis, the cage comprising at least one movable part configured to move, preferably simultaneously, relative to the frame when the barrel moves between the first position and the second position, and wherein, when the barrel is in at least one of said first and second positions, the cage is configured to surround, with at least the barrel and possibly the frame, the drilling axis of the drilling machine in a plane perpendicular to said drilling axis.
An adhesive tape comprising a polyolefin foam base and an adhesive layer disposed on at least one surface of the polyolefin foam base, wherein an average bubble diameter in a machine direction and an average bubble diameter in a cross-machine direction of the polyolefin foam base, measured as indicated in the description, are each 150 μm or less, a ratio represented by the average bubble diameter in the machine direction/an average bubble diameter in a vertical direction and a ratio represented by the average bubble diameter in the cross-machine direction/the average bubble diameter in the vertical direction are each 6 or less, and the foam base has an interlaminar strength, measured as indicated in the description, of 20 N/cm or more,wherein the polyolefin foam base has a 25% compressive strength, measured as indicated in the description, of 80 kPa or more.
A portable equipment item for communicating with a local terminal, the portable equipment item being associated with a service provider and with a holder and being used by a user, the portable equipment item comprising at least: - a first storage medium for storing at least a plurality of applications, - first processing means arranged to execute an application transaction with the local terminal, according to one application out of said plurality of applications, and - second contactless communication means arranged to contactlessly transmit data to the local terminal, the portable equipment item being characterized in that it also comprises: - second processing means distinct from the first processing means and arranged to execute at least one application function with the local terminal, and - a second storage medium accessible only in write mode for the second processing means and only in read mode for the first processing means, said second processing means being suitable for writing to the second storage medium data representative of the result of said at least one application function and the first processing means being suitable for reading these data on the second storage medium in order to execute at least one application transaction with the local terminal according to at least one application out of said plurality of applications. - a first storage medium for storing at least a plurality of applications, - first processing means arranged to execute an application transaction with the local terminal, according to one application out of said plurality of applications, and - second contactless communication means arranged to contactlessly transmit data to the local terminal, - second processing means distinct from the first processing means and arranged to execute at least one application function with the local terminal, and - a second storage medium accessible only in write mode for the second processing means and only in read mode for the first processing means, said second processing means being suitable for writing to the second storage medium data representative of the result of said at least one application function and the first processing means being suitable for reading these data on the second storage medium in order to execute at least one application transaction with the local terminal according to at least one application out of said plurality of applications.