mhurhangee/patent-ind-claim-en huggingface dataset:
Spoke wheel rim for a tubeless tyre with a rim ring which comprises a rim base and two rim flanges , and with spokes which connect a hub to the rim ring , wherein - grooves are provided on the rim ring running in the circumferential direction, in which the spokes each engage with a complementarily formed spoke head , - each spoke head has a passage opening formed transversely to the spoke axis , - each groove is provided with a screw which crosses the groove and is screwed in from outside, - the screw is screwed into a screw-in opening of the rim ring through the passage opening of the spoke head as a fit and the spoke is thereby fixed, characterised in that - the grooves are arranged in an area between the rim flange and the rim base . - grooves are provided on the rim ring running in the circumferential direction, in which the spokes each engage with a complementarily formed spoke head , - each spoke head has a passage opening formed transversely to the spoke axis , - each groove is provided with a screw which crosses the groove and is screwed in from outside, - the screw is screwed into a screw-in opening of the rim ring through the passage opening of the spoke head as a fit and the spoke is thereby fixed, characterised in that - the grooves are arranged in an area between the rim flange and the rim base .
A ceramics paste for bonding ceramic green sheets, the paste including: ZrO 2 ceramic particles; a resin capable of functioning as a binder of the ceramic particles; a solvent; and an additive, wherein the additive is one or more compounds each independently being of the following second group: (ii) a second group having one or more of: ether structures; urethane structures; hydroxy group-containing structures; ester structures; and acrylic structures, and having one or more of: imidazoline structures; ethylenediamine structures; and amine structures; and wherein the additive does not contain an additive from the following third group: (iii) a third group which is additives each having any one or more of: ether structures; urethane structures; hydroxy group-containing structures; ester structures; acrylic structures; imidazoline structures; ethylenediamine structures; and amine structures; and one or more selected from phosphate salts, sulfonates, carboxylates, alkylammonium salts, and acid group-containing compounds; and wherein the solvent is one of or a mixture of two or more of 2-ethylhexanoic acid, 2-ethylhexanol, 2-ethylhexyl acetate, 2-ethylhexyl methacrylate, α-terpineol, β-terpineol, γ-terpineol, and dihydroterpineol. ZrO 2 ceramic particles; a resin capable of functioning as a binder of the ceramic particles; a solvent; and an additive, ether structures; urethane structures; hydroxy group-containing structures; ester structures; and acrylic structures, and having one or more of: imidazoline structures; ethylenediamine structures; and amine structures; ether structures; urethane structures; hydroxy group-containing structures; ester structures; acrylic structures; imidazoline structures; ethylenediamine structures; and amine structures; and one or more selected from phosphate salts, sulfonates, carboxylates, alkylammonium salts, and acid group-containing compounds;
A device for breaking eggs , comprising: - at least one pair of supports (22, 51-54) for an egg; - at least one blade (24, 57-60), ∘ which is movable from a position outside the supports to a position inside the supports for cleaving an egg situated on the supports; - a lock for fixing the position of an egg placed on the supports; wherein: ∘ the lock is movable between: ▪ a first position wherein the lock unblocks a space for placing an egg on the supports; and ▪ a second position wherein the lock blocks a space for removing an egg from the supports (51-54); characterized in that ∘ the periphery of the lock is provided with a roughening , such as a toothing, for increasing the grip, and wherein the lock is provided with an adjustable clamp in order to allow the lock to be movable in a first position with respect to the clamp and to allow the clamp to engage with the roughening on the lock in a second state, the clamp being configured ∘ to ensure that the lock bears against an egg in the second position without exerting pressure or to ensure that the lock is positioned just above an egg. - at least one pair of supports (22, 51-54) for an egg; - at least one blade (24, 57-60), ∘ which is movable from a position outside the supports to a position inside the supports for cleaving an egg situated on the supports; ∘ which is movable from a position outside the supports to a position inside the supports for cleaving an egg situated on the supports; - a lock for fixing the position of an egg placed on the supports; ∘ the lock is movable between: ▪ a first position wherein the lock unblocks a space for placing an egg on the supports; and ▪ a second position wherein the lock blocks a space for removing an egg from the supports (51-54); ▪ a first position wherein the lock unblocks a space for placing an egg on the supports; and ▪ a second position wherein the lock blocks a space for removing an egg from the supports (51-54); ∘ the periphery of the lock is provided with a roughening , such as a toothing, for increasing the grip, and wherein the lock is provided with an adjustable clamp in order to allow the lock to be movable in a first position with respect to the clamp and to allow the clamp to engage with the roughening on the lock in a second state, the clamp being configured ∘ to ensure that the lock bears against an egg in the second position without exerting pressure or to ensure that the lock is positioned just above an egg.
A radiation source including iridium, wherein at least a portion of the iridium is porous or microporous iridium, and wherein the density of the active insert containing the iridium is in a range of 30 to 85 percent of the density of 100% dense pure iridium, characterized in that the iridium is in the form of disks having flat, curved or shaped faces that are thicker in the middle than at the circumference, which are stacked, compressed or otherwise formed into a sphere or quasi-sphere, or in the form of microbeads or microgranules .
Method for producing an individual battery cell having a stack or winding of electrodes and separators , at least one of the electrodes comprising collector tabs which project laterally in one direction beyond the stack or winding and are welded to one another, characterized in that the collector tabs are compacted and attached by welding on their side facing the stack or winding, after which the compacted and welded collector tabs are gripped by a welding electrode on their side facing away from the stack or winding and wound around the welding electrode in the direction of the stack or winding, and after which a cell cover of the individual battery cell is welded to the wound collector tabs .
An internal combustion engine comprising: a cylinder block (10; 90) equipped with a ringed coolant water passage (16; 92) formed so as to surround a plurality of cylinders (#1-#4); two partitioning members (12, 14; 48, 50; 68, 70; 76; 80; 84; 88) having a larger thermal expansion coefficient as compared to that of said cylinder block (10; 90), and separating said ringed coolant water passage (16; 92) into first passage (22; 98) existing mainly at one side of a longitudinal bore center plane which extends along the longitudinal direction of said cylinder block (10; 90) and second passage (24; 100) existing mainly at the other side of said longitudinal bore center plane; an inlet which communicates with said first passage (22; 98); an outlet which communicates with said second passage (24; 100); and a cylinder head (28; 104) provided with a coolant water passage opening to both said first passage (22; 98) and said second passage (24; 100); wherein said internal combustion engine is characterized in that a gap is formed between said cylinder block (10; 90) and said partitioning member (12, 14; 48, 50; 68, 70; 76; 80; 84; 88) under a warmed up condition. a cylinder block (10; 90) equipped with a ringed coolant water passage (16; 92) formed so as to surround a plurality of cylinders (#1-#4); two partitioning members (12, 14; 48, 50; 68, 70; 76; 80; 84; 88) having a larger thermal expansion coefficient as compared to that of said cylinder block (10; 90), and separating said ringed coolant water passage (16; 92) into first passage (22; 98) existing mainly at one side of a longitudinal bore center plane which extends along the longitudinal direction of said cylinder block (10; 90) and second passage (24; 100) existing mainly at the other side of said longitudinal bore center plane; an inlet which communicates with said first passage (22; 98); an outlet which communicates with said second passage (24; 100); and a cylinder head (28; 104) provided with a coolant water passage opening to both said first passage (22; 98) and said second passage (24; 100); wherein said internal combustion engine is characterized in that a gap is formed between said cylinder block (10; 90) and said partitioning member (12, 14; 48, 50; 68, 70; 76; 80; 84; 88) under a warmed up condition.
An identifier providing device for providing a unique identifier as a command for making an information processing device comprising a touch-type computer device execute a predetermined information processing by causing a capacitance change of a multi-touch display of the touch-type computer device through a conductive layer pattern, comprising: a base material as an insulator, and a conductive layer pattern formed by coating a paste on a predetermined surface of the base material so as to be a predetermined pattern by printing, characterized in that the paste for forming the conductive layer pattern is a silver paste and contains, as silver particles, only silver flakes having a particle size in a range of 3.0 to 5.0 μm and a thickness (T11) at a maximum thickness portion is in a range of 100 nm or less and a thickness (T13) at an extremely small thickness portion is in a range of 50 nm or less, the conductive layer pattern is formed by laminating the silver flakes in a thickness direction such that a film thickness (T2) is in a range of 10 μm or less, and the silver flakes forming the conductive layer pattern is in a fused state or in an aggregated/cohering state with each other at the extremely small thickness portion. a base material as an insulator, and a conductive layer pattern formed by coating a paste on a predetermined surface of the base material so as to be a predetermined pattern by printing, characterized in that the paste for forming the conductive layer pattern is a silver paste and contains, as silver particles, only silver flakes having a particle size in a range of 3.0 to 5.0 μm and a thickness (T11) at a maximum thickness portion is in a range of 100 nm or less and a thickness (T13) at an extremely small thickness portion is in a range of 50 nm or less, the conductive layer pattern is formed by laminating the silver flakes in a thickness direction such that a film thickness (T2) is in a range of 10 μm or less, and the silver flakes forming the conductive layer pattern is in a fused state or in an aggregated/cohering state with each other at the extremely small thickness portion.
Parallel starter system for starting an internal combustion engine , comprising at least two starters , wherein each of the at least two starters comprises: a pinion for meshing with a ring gear of the internal combustion engine to be started, a starter motor (M) for spinning the pinion , a mechanical actuator for moving the pinion into an engagement position and a logic unit with a data interface , wherein the logic unit is set up: to actuate the mechanical actuator to move the pinion to the engagement position, and to actuate the starter motor (M) to spin the pinion , wherein the logic unit of a first of the at least two starters is arranged to output an engagement request and a spinning request in response to the receipt of a start request, wherein the logic unit of at least one further of the at least two starters is arranged to control the mechanical actuator for moving the pinion into the engagement position in response to receipt of the engagement request and to control the starter motor (M) for spinning the pinion in response to receipt of the spinning request, characterized in that the data interface is a bus interface. a pinion for meshing with a ring gear of the internal combustion engine to be started, a starter motor (M) for spinning the pinion , a mechanical actuator for moving the pinion into an engagement position and a logic unit with a data interface , wherein the logic unit is set up: to actuate the mechanical actuator to move the pinion to the engagement position, and to actuate the starter motor (M) to spin the pinion , wherein the logic unit of a first of the at least two starters is arranged to output an engagement request and a spinning request in response to the receipt of a start request, wherein the logic unit of at least one further of the at least two starters is arranged to control the mechanical actuator for moving the pinion into the engagement position in response to receipt of the engagement request and to control the starter motor (M) for spinning the pinion in response to receipt of the spinning request, characterized in that the data interface is a bus interface. to actuate the mechanical actuator to move the pinion to the engagement position, and to actuate the starter motor (M) to spin the pinion , wherein the logic unit of a first of the at least two starters is arranged to output an engagement request and a spinning request in response to the receipt of a start request, wherein the logic unit of at least one further of the at least two starters is arranged to control the mechanical actuator for moving the pinion into the engagement position in response to receipt of the engagement request and to control the starter motor (M) for spinning the pinion in response to receipt of the spinning request, characterized in that the data interface is a bus interface.
Electric system with circuitry including a first branch to supply electric current to a load , the first branch including a diode connected in series with the load ; characterised by a second branch to supply electric current to an integrated circuit , the second branch including a diode connected in series with the integrated circuit , wherein the integrated circuit is configured to control operation of the load . a first branch to supply electric current to a load , the first branch including a diode connected in series with the load ; characterised by a second branch to supply electric current to an integrated circuit , the second branch including a diode connected in series with the integrated circuit , wherein the integrated circuit is configured to control operation of the load .
An electrochemical element comprising: a metal substrate; and a plurality of electrochemical reaction portions arranged on/over an upper side of the metal substrate, wherein the electrochemical reaction portion has at least an electrode layer, an electrolyte layer, and a counter electrode layer, wherein the metal substrate has a gas flow allowing region that allows flowing of a gas between the upper side and a lower side of the metal substrate to the electrode layer, wherein the electrolyte layer is arranged at least between the electrode layer and the counter electrode layer, and wherein the plurality of electrochemical reaction portions are electrically connected in parallel. a metal substrate; and a plurality of electrochemical reaction portions arranged on/over an upper side of the metal substrate, wherein the electrochemical reaction portion has at least an electrode layer, an electrolyte layer, and a counter electrode layer, wherein the metal substrate has a gas flow allowing region that allows flowing of a gas between the upper side and a lower side of the metal substrate to the electrode layer, wherein the electrolyte layer is arranged at least between the electrode layer and the counter electrode layer, and wherein the plurality of electrochemical reaction portions are electrically connected in parallel.
Surgical clip , in particular an aneurysm clip, comprising two rotatably interconnected clip parts and a leg spring , the two spring legs of which are in each case supported on the two clip parts so as to mutually pretension the two clip parts , wherein the leg spring is formed from a plastics material, in particular PEEK, that is reinforced with continuous carbon fibers , and the continuous carbon fibers are aligned along the spring coilings of the leg spring , characterized in that the two clip parts have in each case one protrusion which axially protrudes in the direction of the axis of rotation of the two clip parts and on which the respective spring leg of the leg spring is supported.
A device comprising: a substrate defining a plane extending in first and second directions substantially orthogonal to one another; a first radio-frequency, RF, antenna array mounted on the substrate and having a first aperture, the first aperture having a first width extending in the first direction and a first length extending in the second direction, the first length being larger than the first width; and a second RF antenna array mounted on the substrate and having a second aperture, the second aperture having a second width extending in the first direction and a second length extending in the second direction, the second length being less than the second width, wherein the first RF antenna array comprises a first plurality of antennas sized to transmit Terahertz RF signals, wherein the Terahertz RF signals have frequency content in a frequency band of 300 GHz - 3 THz, and wherein the second RF antenna array comprises a second plurality of antennas sized to receive Terahertz RF signals. a substrate defining a plane extending in first and second directions substantially orthogonal to one another; a first radio-frequency, RF, antenna array mounted on the substrate and having a first aperture, the first aperture having a first width extending in the first direction and a first length extending in the second direction, the first length being larger than the first width; and a second RF antenna array mounted on the substrate and having a second aperture, the second aperture having a second width extending in the first direction and a second length extending in the second direction, the second length being less than the second width, wherein the first RF antenna array comprises a first plurality of antennas sized to transmit Terahertz RF signals, wherein the Terahertz RF signals have frequency content in a frequency band of 300 GHz - 3 THz, and wherein the second RF antenna array comprises a second plurality of antennas sized to receive Terahertz RF signals.
An apparatus for determining impedance of a plurality of channels comprising: a plurality of channels having a plurality of first channels and a plurality of second channels ; at least one reference channel , the reference channel configured as a reference potential for the plurality of channels; a signal generator electrically connected to the plurality of channels, the signal generator configured to provide a plurality of input signals to the plurality of channels, the plurality of input signals includes a first input signal and a second input signal , the second input signal being opposite in phase of the first input signal and generated by means of an inverter connected in parallel with the output of the signal generator; a reference signal generator connected to the reference channel, the reference signal generator configured to provide an input signal to the reference channel; at least one amplifier connected to each of the plurality of channels and the reference channel to amplify the signal through the plurality of channels and the reference channel; and at least one filter arrangement , the at least one filter arrangement connected to an output of the at least one amplifier to filter the signal from the at least one amplifier; whereby the impedance of the plurality of channels can be determined from the output signal obtained from the at least one filter arrangement; and wherein the apparatus is configured to apply the first and second input signals simultaneously. a plurality of channels having a plurality of first channels and a plurality of second channels ; at least one reference channel , the reference channel configured as a reference potential for the plurality of channels; a signal generator electrically connected to the plurality of channels, the signal generator configured to provide a plurality of input signals to the plurality of channels, the plurality of input signals includes a first input signal and a second input signal , the second input signal being opposite in phase of the first input signal and generated by means of an inverter connected in parallel with the output of the signal generator; a reference signal generator connected to the reference channel, the reference signal generator configured to provide an input signal to the reference channel; at least one amplifier connected to each of the plurality of channels and the reference channel to amplify the signal through the plurality of channels and the reference channel; and at least one filter arrangement , the at least one filter arrangement connected to an output of the at least one amplifier to filter the signal from the at least one amplifier; whereby the impedance of the plurality of channels can be determined from the output signal obtained from the at least one filter arrangement; and wherein the apparatus is configured to apply the first and second input signals simultaneously.
A method in the manufacture of a spirally wound and welded tube including the steps of: receiving a thermoplastic profile with a substantially rectangular cross-section on a winding apparatus comprising an open structure of sliding bars arranged in an axial direction of said tube and defining a cylindrically shaped winding surface with a diameter corresponding to the inner diameter of the tube to be manufactured; directing the received profile along a spiral path (S) on said sliding means towards a previous turn of said profile on said cylindrical surface by means of radially oriented rollers spaced along said spiral path by adjusting the axial position (d) of said radially arranged rollers along said spiral path (S); welding together opposite edges of said profile turns at a welding station by providing an extruded welding mass between said profile turns and by pressing them together; forwarding said tube in an axial direction by means of said rollers by sliding it onto a rotating support ; and wherein the axial position (d) of each roller is shifted in response to a force gauge giving an indication of the need of an axial position (d) adjustment and its magnitude. receiving a thermoplastic profile with a substantially rectangular cross-section on a winding apparatus comprising an open structure of sliding bars arranged in an axial direction of said tube and defining a cylindrically shaped winding surface with a diameter corresponding to the inner diameter of the tube to be manufactured; directing the received profile along a spiral path (S) on said sliding means towards a previous turn of said profile on said cylindrical surface by means of radially oriented rollers spaced along said spiral path by adjusting the axial position (d) of said radially arranged rollers along said spiral path (S); welding together opposite edges of said profile turns at a welding station by providing an extruded welding mass between said profile turns and by pressing them together; forwarding said tube in an axial direction by means of said rollers by sliding it onto a rotating support ; and wherein the axial position (d) of each roller is shifted in response to a force gauge giving an indication of the need of an axial position (d) adjustment and its magnitude.