mhurhangee/patent-ind-claim-en huggingface dataset:
A method for generating a signal in a radio communication system, the method comprising: obtaining , by an apparatus , a first data block, a second data block and a third data block; generating by the apparatus a first signal , wherein a first part of the first signal is generated from a data of the first data block, and wherein a second part of the first signal is generated from a data of the second data block, the second part of the first signal being subsequent in time domain compared with the first part of the first signal ; generating by the apparatus a second signal , wherein a first part of the second signal is generated from a data of the third data block, and wherein a second part of the second signal is generated from the data of the second data block, the second part of the second signal being subsequent in time domain compared with the first part of the second signal , characterized in that the second parts of the first and second signals comprise the same data and wherein the second parts of the first and second signals are fixed-tail signals of said signals and wherein the second parts are repeated for a duration of a subframe; and transmitting by the apparatus the first and second signals . obtaining , by an apparatus , a first data block, a second data block and a third data block; generating by the apparatus a first signal , wherein a first part of the first signal is generated from a data of the first data block, and wherein a second part of the first signal is generated from a data of the second data block, the second part of the first signal being subsequent in time domain compared with the first part of the first signal ; generating by the apparatus a second signal , wherein a first part of the second signal is generated from a data of the third data block, and wherein a second part of the second signal is generated from the data of the second data block, the second part of the second signal being subsequent in time domain compared with the first part of the second signal , characterized in that the second parts of the first and second signals comprise the same data and wherein the second parts of the first and second signals are fixed-tail signals of said signals and wherein the second parts are repeated for a duration of a subframe; and transmitting by the apparatus the first and second signals .
An integrated circuit, IC, device comprising: a circuit configured to perform a function; a fault management component configured to manage fault monitoring of the circuit ; at least one user register connected to receive control signals from the fault management component and connected to provide register values to the circuit to control an aspect of the circuit ; an analog test bus component configured to establish connections to nodes in the circuit to convey analog signals to the nodes and to communicate digital signals with the fault management component , wherein the analog test bus component includes at least one of a digital-to-analog converter , DAC, to convert digital signals from the fault management component to analog signals for injection into the circuit , and an analog-to-digital converter , ADC, to convert analog signals from the circuit to digital signal for the fault management component ; a built-in self-test component connected to the circuit to test the circuit and to communicate digital signals with the fault management component ; a safety monitor component connected to the circuit to receive a signal from the circuit and to output a safety monitor signal in response to the signal received from the circuit ; and gating logic configured to gate signals from the circuit and/or from the safety monitor in response to signals from the fault management component ; wherein the circuit is separated from the fault management component , the at least one user register , the analog test bus component , the built-in self-test component , the safety monitor , and the gating logic . a circuit configured to perform a function; a fault management component configured to manage fault monitoring of the circuit ; at least one user register connected to receive control signals from the fault management component and connected to provide register values to the circuit to control an aspect of the circuit ; an analog test bus component configured to establish connections to nodes in the circuit to convey analog signals to the nodes and to communicate digital signals with the fault management component , wherein the analog test bus component includes at least one of a digital-to-analog converter , DAC, to convert digital signals from the fault management component to analog signals for injection into the circuit , and an analog-to-digital converter , ADC, to convert analog signals from the circuit to digital signal for the fault management component ; a built-in self-test component connected to the circuit to test the circuit and to communicate digital signals with the fault management component ; a safety monitor component connected to the circuit to receive a signal from the circuit and to output a safety monitor signal in response to the signal received from the circuit ; and gating logic configured to gate signals from the circuit and/or from the safety monitor in response to signals from the fault management component ; wherein the circuit is separated from the fault management component , the at least one user register , the analog test bus component , the built-in self-test component , the safety monitor , and the gating logic .
Carbonation apparatus for carbonating a mixed input flow of pressurized and refrigerated carbon dioxide molecules and water molecules, the apparatus comprising: a) a first carbonation chamber defining an input port , an output port and a central chamber, the first carbonation chamber input port being in fluid communication with the mixed input flow; b) a first cartridge disposed within the central chamber, the first cartridge defining a porous outer surface of a first micromesh net in fluid communication with the first carbonation chamber input port, and a first cartridge central cavity in fluid communication with the first carbonation chamber output port; c) wherein the first micromesh net material is sized and configured to break up chains of water molecules passing through the first micromesh net to enhance bonding between of water molecules and carbon dioxide molecules within the first cartridge central chamber; d) wherein the first micromesh net is configured to respond to the flow of water molecules and carbon dioxide molecules impacting upon and passing through the first micromesh net by generating a passive polarizing field that has a polarizing influence on water molecules passing through the first micromesh net, to further enhance bonding between the water molecules and the carbon dioxide molecules within the central chamber; characterized in that it further comprises: e) a plurality of first beads disposed within the first cartridge central chamber, the plurality of first beads defining an outer surface characterized by molecule capturing irregularities formed therein for capturing and stabilizing carbon dioxide molecules on the outer surface thereof to further enhance bonding between water molecules and carbon dioxide molecules within the central chamber. a) a first carbonation chamber defining an input port , an output port and a central chamber, the first carbonation chamber input port being in fluid communication with the mixed input flow; b) a first cartridge disposed within the central chamber, the first cartridge defining a porous outer surface of a first micromesh net in fluid communication with the first carbonation chamber input port, and a first cartridge central cavity in fluid communication with the first carbonation chamber output port; c) wherein the first micromesh net material is sized and configured to break up chains of water molecules passing through the first micromesh net to enhance bonding between of water molecules and carbon dioxide molecules within the first cartridge central chamber; d) wherein the first micromesh net is configured to respond to the flow of water molecules and carbon dioxide molecules impacting upon and passing through the first micromesh net by generating a passive polarizing field that has a polarizing influence on water molecules passing through the first micromesh net, to further enhance bonding between the water molecules and the carbon dioxide molecules within the central chamber;
An oil-based inkjet ink set comprising: an oil-based inkjet ink A, which is a black ink and comprises a pigment, a pigment dispersant and a non-aqueous solvent, the non-aqueous solvent of the oil-based inkjet ink A containing at least 15% by mass of a silicone oil relative to a total mass of the non-aqueous solvent of the oil-based inkjet ink A, and an oil-based inkjet ink B, which is a color ink and comprises a pigment, a pigment dispersant and a non-aqueous solvent, the non-aqueous solvent of the oil-based inkjet ink B containing at least 50% by mass of a petroleum-based hydrocarbon solvent relative to a total mass of the non-aqueous solvent of the oil-based inkjet ink B. an oil-based inkjet ink A, which is a black ink and comprises a pigment, a pigment dispersant and a non-aqueous solvent, the non-aqueous solvent of the oil-based inkjet ink A containing at least 15% by mass of a silicone oil relative to a total mass of the non-aqueous solvent of the oil-based inkjet ink A, and an oil-based inkjet ink B, which is a color ink and comprises a pigment, a pigment dispersant and a non-aqueous solvent, the non-aqueous solvent of the oil-based inkjet ink B containing at least 50% by mass of a petroleum-based hydrocarbon solvent relative to a total mass of the non-aqueous solvent of the oil-based inkjet ink B.
An exchangeable grinding body for use in a device for nail care, with an at least regionally plate-like base body with an upper side , a lower side and a peripheral edge , with an arcuate grinding surface which is formed on the edge , and with a recess which lies opposite and away from the grinding surface within the base body for the coupling of the grinding body to a drive element, characterised in that two or more guide projections are arranged on the upper side or the lower side of the base body , said guide projections projecting beyond the respective side of the base body and being designed to displaceably slide in a guide groove which is open to the respective side of the base body .
Transfer for an elevator , in particular a passenger elevator, which is attachable to a crane mast and having at least one attachment means by which the transfer is attachable to the crane mast, characterized in that the transfer is releasably attachable and that the attachment means has at least one rail and at least one clamping piece via which a connection between the rail and the crane mast can be produced, and that a foldable platform is provided which in the folded-up state, viewed from an inner region of the crane mast, remains in front of a plane (E BF ) spanned by the attachment means, in particular the clamping piece, in the assembled state, and which in the unfolded state penetrates this plane (E BF ) and is thus providing a walk-on surface whereby a transition can be provided between the inner region of the crane mast and the elevator.
An actuator comprising: a housing ; a nozzle ; a valve ; a trigger operatively connected with the valve , wherein the trigger comprises a first zone and a second zone , wherein the first and second zones are joined by a hinge , wherein the hinge comprises a hinge axis (B) that the first and second zones are movable about, wherein the trigger is configured to reciprocate from a forward position to a rearward position and back to a forward position upon actuation; and a mechanical stop positioned between the trigger and the housing , wherein the mechanical stop is configured to engage with the first zone of the trigger , wherein movement of the trigger from a forward position to the mechanical stop causes the first and second zones to move about a common axis, characterized in that movement of the trigger from the mechanical stop to the rearward position causes the first and second zones to move in opposite directions about the hinge axis (B). a housing ; a nozzle ; a valve ; a trigger operatively connected with the valve , wherein the trigger comprises a first zone and a second zone , wherein the first and second zones are joined by a hinge , wherein the hinge comprises a hinge axis (B) that the first and second zones are movable about, wherein the trigger is configured to reciprocate from a forward position to a rearward position and back to a forward position upon actuation; and a mechanical stop positioned between the trigger and the housing , wherein the mechanical stop is configured to engage with the first zone of the trigger , wherein movement of the trigger from a forward position to the mechanical stop causes the first and second zones to move about a common axis, characterized in that movement of the trigger from the mechanical stop to the rearward position causes the first and second zones to move in opposite directions about the hinge axis (B).
Communication system included in a pilotless mobile device system comprising a control station and at least one pilotless mobile device , enabling each pilotless mobile device to communicate with the control station using a medium-access technique of the time division multiple access type in which each communication takes place in frames, a frame duration being defined for each frame used in the communication system so as to obtain latency times in each communication between each pilotless mobile device and the base station that are compatible with a transmission of conversation audio data; the system being characterised in that each frame being divided into a plurality of timeslots comprising a first timeslot enabling the control station to transmit a first signal designating a pilotless mobile device and enabling each pilotless mobile device to synchronise on a time reference given by the control station , a second timeslot enabling the pilotless mobile device designated by the first signal to transmit a second signal enabling it thus to acknowledge its presence in the pilotless mobile device system , and a succession of timeslots comprising a number of timeslots dependent on a maximum number of pilotless mobile devices that can be controlled by the control station in the pilotless mobile device system , the timeslots in the succession of timeslots being used to exchange useful data between each pilotless mobile device and the control station ; and each timeslot is divided into a plurality of burst intervals with a duration making it possible to obtain a stationary channel during said duration.
An implantable device adapted to sense ambient intraocular pressure, the device comprising: first and second membranes separated by an intermembrane gap (g), the first and second membranes being configured to move with respect to each other in response to changes in pressure to change the size of the intermembrane gap (g), wherein the first and second membranes are deformable in response to a change in intraocular pressure; characterised by a plurality of nanophotonic components embedded in the first and second membranes , the nanophotonic components being configured to reflect light ; further characterised in that a change in the intermembrane gap size causes a shift (Δ s ) of a resonance of the nanophotonic components embedded in the first and second membranes , thereby shifting a resonance dip in the optical spectrum of the reflected light . first and second membranes separated by an intermembrane gap (g), the first and second membranes being configured to move with respect to each other in response to changes in pressure to change the size of the intermembrane gap (g), wherein the first and second membranes are deformable in response to a change in intraocular pressure; characterised by a plurality of nanophotonic components embedded in the first and second membranes , the nanophotonic components being configured to reflect light ; further characterised in that a change in the intermembrane gap size causes a shift (Δ s ) of a resonance of the nanophotonic components embedded in the first and second membranes , thereby shifting a resonance dip in the optical spectrum of the reflected light .
A method of identifying ships from camera images, comprising computation of sets of reference silhouette images for respective reference ships for use to match the reference silhouette images with a camera image of an unidentified ship, wherein the computation of the set of reference silhouette images for each respective reference ship is performed automatically by a processing system, the method comprising the steps, performed by the processing system, of - forming a three dimensional model of the respective reference ship that represents distances of an outer surface of the reference ship to a plane on which a captured silhouette image has been mapped, the three dimensional model representing the distances as a function of position in said plane; - detecting a deck line of the reference ship from the captured silhouette image; - setting and/or adapting the represented distances to the outer surface dependent on position in said plane relative to the detected deck line; - setting and/or adapting the represented distances for positions in said plane below the detected deck line convergently toward a bow of the ship in the silhouette image; - generating the reference silhouette images by computing perspective projections of the three dimensional model onto image planes for respective viewpoints in a three dimensional array of viewpoints in ranges of distance relative to the reference ship, horizontal direction from the reference ship to the viewpoint and preferably also height relative to the reference ship in the three dimensional model. - forming a three dimensional model of the respective reference ship that represents distances of an outer surface of the reference ship to a plane on which a captured silhouette image has been mapped, the three dimensional model representing the distances as a function of position in said plane; - detecting a deck line of the reference ship from the captured silhouette image; - setting and/or adapting the represented distances to the outer surface dependent on position in said plane relative to the detected deck line; - setting and/or adapting the represented distances for positions in said plane below the detected deck line convergently toward a bow of the ship in the silhouette image; - generating the reference silhouette images by computing perspective projections of the three dimensional model onto image planes for respective viewpoints in a three dimensional array of viewpoints in ranges of distance relative to the reference ship, horizontal direction from the reference ship to the viewpoint and preferably also height relative to the reference ship in the three dimensional model.
A humidifier for use with a pressure support device , comprising: a body having an inlet adapted to be operatively coupled to an outlet of a pressure support device such that a flow of gas generated by such a pressure support device is communicated to the inlet , a fluid holding chamber , and an outlet , wherein the inlet is positioned upstream and in fluid communication with the fluid holding chamber , and the outlet is positioned downstream of and in fluid communication with the fluid holding chamber ; and a valve arrangement including: a cylindrical member having a flexible movable flap , wherein the flexible movable flap is attached at one end to the cylindrical member via a central portion , wherein the valve arrangement is positioned in the inlet and upstream of the fluid holding chamber , wherein the valve arrangement is movable between an open position in which the inlet is substantially unblocked and a closed position in which the inlet is substantially blocked, characterized in that the cylindrical member , flap and central portion are formed from a unitary molded piece of material. a body having an inlet adapted to be operatively coupled to an outlet of a pressure support device such that a flow of gas generated by such a pressure support device is communicated to the inlet , a fluid holding chamber , and an outlet , wherein the inlet is positioned upstream and in fluid communication with the fluid holding chamber , and the outlet is positioned downstream of and in fluid communication with the fluid holding chamber ; and a valve arrangement including: a cylindrical member having a flexible movable flap , wherein the flexible movable flap is attached at one end to the cylindrical member via a central portion , wherein the valve arrangement is positioned in the inlet and upstream of the fluid holding chamber , wherein the valve arrangement is movable between an open position in which the inlet is substantially unblocked and a closed position in which the inlet is substantially blocked, characterized in that the cylindrical member , flap and central portion are formed from a unitary molded piece of material.
A strand pelletizer for pelletizing a strand of material with - at least one cutting edge , - an opposite cutting edge , wherein -- the opposite cutting edge is arranged on a base body and -- the base body is linearly displaceable relative to a support body for adjusting the opposite cutting edge , - a feeding device for feeding a material strand into a cutting gap between the at least one cutting edge and the opposite cutting edge , characterized by a first adjustment screw and a first pin which forms a first pivot axis and is displaceable by means of the first adjustment screw , and by a second adjustment screw and a second pin which forms a second pivot axis and is displaceable by means of the second adjustment screw , wherein the first adjustment screw is arranged at the support body and is connected to the first pin which is mounted on the base body so that the base body is pivotable relative to the support body about the second pivot axis , and wherein the second adjustment screw is arranged at the support body and is connected to the second pin which is mounted on the base body so that the base body is pivotable relative to the support body about the first pivot axis . - at least one cutting edge , - an opposite cutting edge , wherein -- the opposite cutting edge is arranged on a base body and -- the base body is linearly displaceable relative to a support body for adjusting the opposite cutting edge , -- the opposite cutting edge is arranged on a base body and -- the base body is linearly displaceable relative to a support body for adjusting the opposite cutting edge , - a feeding device for feeding a material strand into a cutting gap between the at least one cutting edge and the opposite cutting edge , by a first adjustment screw and a first pin which forms a first pivot axis and is displaceable by means of the first adjustment screw , and by a second adjustment screw and a second pin which forms a second pivot axis and is displaceable by means of the second adjustment screw , wherein the first adjustment screw is arranged at the support body and is connected to the first pin which is mounted on the base body so that the base body is pivotable relative to the support body about the second pivot axis , and wherein the second adjustment screw is arranged at the support body and is connected to the second pin which is mounted on the base body so that the base body is pivotable relative to the support body about the first pivot axis .