mhurhangee/patent-ind-claim-en huggingface dataset:
A method, comprising: receiving n data bits in parallel; receiving a clock signal; and transmitting the n bits in serial; characterized in that the method further comprising: receiving a data command signal; encoding, after receiving the data command signal, the next available bit of the n bits to include a number of logical states in a bit period of the serial transmission, and wherein the number of logical states is a function of the clock signal, is odd, and is at least three. receiving n data bits in parallel; receiving a clock signal; and transmitting the n bits in serial; characterized in that the method further comprising: receiving a data command signal; encoding, after receiving the data command signal, the next available bit of the n bits to include a number of logical states in a bit period of the serial transmission, and wherein the number of logical states is a function of the clock signal, is odd, and is at least three. receiving a data command signal; encoding, after receiving the data command signal, the next available bit of the n bits to include a number of logical states in a bit period of the serial transmission, and wherein the number of logical states is a function of the clock signal, is odd, and is at least three.
A deployable structure comprising: a first helical lattice and a second helical lattice , wherein each helical lattice comprises: pre-stressed strips comprising carbon fibre reinforced plastic material, wherein half of the pre-stressed strips are arranged in a clockwise helix, and the other half of the pre-stressed strips are arranged in an anti-clockwise helix ; and wherein the strips , comprise holes which are equally distanced from each other along the length of the strips ; and fasteners inserted into the holes to join the strips at pivoting connections, thereby forming the lattice, wherein the first helical lattice is arrangeable in a stowed configuration and a deployed configuration and the second helical lattice is arrangeable in a stowed configuration and a deployed configuration, wherein the helical lattices are configured to deploy using stored energy of bending in the helical lattice elements , wherein with the helical lattices arranged in the stowed configuration the second helical lattice nests in the first helical lattice , wherein the helical latices are axially aligned, and wherein the first helical lattice and second helical lattice change in length and radius simultaneously during deployment. a first helical lattice and a second helical lattice , wherein each helical lattice comprises: pre-stressed strips comprising carbon fibre reinforced plastic material, wherein half of the pre-stressed strips are arranged in a clockwise helix, and the other half of the pre-stressed strips are arranged in an anti-clockwise helix ; and wherein the strips , comprise holes which are equally distanced from each other along the length of the strips ; and pre-stressed strips comprising carbon fibre reinforced plastic material, wherein half of the pre-stressed strips are arranged in a clockwise helix, and the other half of the pre-stressed strips are arranged in an anti-clockwise helix ; and wherein the strips , comprise holes which are equally distanced from each other along the length of the strips ; and fasteners inserted into the holes to join the strips at pivoting connections, thereby forming the lattice, wherein the first helical lattice is arrangeable in a stowed configuration and a deployed configuration and the second helical lattice is arrangeable in a stowed configuration and a deployed configuration, wherein the helical lattices are configured to deploy using stored energy of bending in the helical lattice elements , wherein with the helical lattices arranged in the stowed configuration the second helical lattice nests in the first helical lattice , wherein the helical latices are axially aligned, and wherein the first helical lattice and second helical lattice change in length and radius simultaneously during deployment.
Apparatus for detecting uterine activity comprising: first input means configured to receive electrical signals from cutaneous electrodes (30-33); second input means configured to receive movement signals indicative of a movement of the maternal body from a movement detector ; signal processing means configured to separate a uterine electromyogram signal from fetal and maternal heart rate signals in the electrical signals and to filter maternal motion artefacts from the uterine electromyogram signal using the movement signals by attenuating the electromyogram signal as a function of the magnitude of the movement signals ; and output means configured to present electrohysterogram (EHG) data from the filtered uterine electromyogram signal. first input means configured to receive electrical signals from cutaneous electrodes (30-33); second input means configured to receive movement signals indicative of a movement of the maternal body from a movement detector ; signal processing means configured to separate a uterine electromyogram signal from fetal and maternal heart rate signals in the electrical signals and to filter maternal motion artefacts from the uterine electromyogram signal using the movement signals by attenuating the electromyogram signal as a function of the magnitude of the movement signals ; and output means configured to present electrohysterogram (EHG) data from the filtered uterine electromyogram signal.
A sound absorption panel having a structure including a honeycomb material , a felt-like fiber material , and a perforated plate joined in this order with a water-soluble adhesive , characterized in that the adhesive and a tip of a wall forming a cell of the honeycomb material are forced into the felt-like fiber material to change a sectional shape from a flat-plate shape to a U-shape, a portion where a fiber in the felt-like fiber material near the wall forming the cell of the honeycomb material and the adhesive are integrated and solidified forms a composite structure (P, Q, R), thereby reinforcing the cell, and the adhesive for joining the felt-like fiber material and the perforated plate extends over an entire surface of the felt-like fiber material exposed at a hole portion of the perforated plate to fix a fiber near said surface, thereby preventing scattering of the fiber, while air permeability is provided by the presence of a gap between fibers. a honeycomb material , a felt-like fiber material , and a perforated plate joined in this order with a water-soluble adhesive , characterized in that the adhesive and a tip of a wall forming a cell of the honeycomb material are forced into the felt-like fiber material to change a sectional shape from a flat-plate shape to a U-shape, a portion where a fiber in the felt-like fiber material near the wall forming the cell of the honeycomb material and the adhesive are integrated and solidified forms a composite structure (P, Q, R), thereby reinforcing the cell, and the adhesive for joining the felt-like fiber material and the perforated plate extends over an entire surface of the felt-like fiber material exposed at a hole portion of the perforated plate to fix a fiber near said surface, thereby preventing scattering of the fiber, while air permeability is provided by the presence of a gap between fibers.
An item of furniture comprising a furniture carcass and a furniture part movably-supported relative to the furniture carcass , the movable furniture part being pivotally supported about a horizontally extending pivoting axis relative to the furniture carcass by a furniture fitting , wherein the furniture fitting is configured as an actuating drive for the movable furniture part in the form of a furniture flap, and the movable furniture part is movably supported between a vertical closed position and an elevated position relative to the furniture carcass , wherein the furniture fitting includes: - a first fitting portion configured to be fixed to a furniture carcass , - a second fitting portion configured to be fixed to a movable furniture part , the second fitting portion being pivotally connected to the first fitting portion , - a limiting device for limiting an opening angle of a relative pivoting movement of the first and second fitting portion , wherein the limiting device includes at least one movably-supported actuating element , wherein the opening angle is adjustable by a manual or by a tool-assisted actuation of the actuating element , - wherein the first fitting portion and the second fitting portion are pivotally connected to each other via at least one first lever , the actuating element being movably supported on the first lever , - wherein the limiting device includes an abutment for limiting the opening angle, wherein a position of the abutment is adjustable by an actuation of the actuating element , characterized in that the furniture fitting includes a second lever by which the first fitting portion and the second fitting portion are pivotally connected to each other, the abutment being supportable on the second lever so as to limit the opening angle. - a first fitting portion configured to be fixed to a furniture carcass , - a second fitting portion configured to be fixed to a movable furniture part , the second fitting portion being pivotally connected to the first fitting portion , - a limiting device for limiting an opening angle of a relative pivoting movement of the first and second fitting portion , wherein the limiting device includes at least one movably-supported actuating element , wherein the opening angle is adjustable by a manual or by a tool-assisted actuation of the actuating element , - wherein the first fitting portion and the second fitting portion are pivotally connected to each other via at least one first lever , the actuating element being movably supported on the first lever , - wherein the limiting device includes an abutment for limiting the opening angle, wherein a position of the abutment is adjustable by an actuation of the actuating element ,
A bone fixation system comprising: a stabilizing member comprising an obverse side and a reverse side opposite the obverse side; a first leg , wherein the first leg is adapted to transform between an elastically deformed state and a relaxed state; and a second leg ; wherein the stabilizing member receives the first and second legs so that the first and second legs protrude from the reverse side; wherein the first and second legs extend through the stabilizing member; characterised in that in the elastically deformed state, a free end of the first leg is a first distance from a free end of the second leg , wherein in the relaxed state, the free end of the first leg is a second distance from the free end of the second leg, wherein the second distance is different from the first distance. a stabilizing member comprising an obverse side and a reverse side opposite the obverse side; a first leg , wherein the first leg is adapted to transform between an elastically deformed state and a relaxed state; and a second leg ; wherein the stabilizing member receives the first and second legs so that the first and second legs protrude from the reverse side; wherein the first and second legs extend through the stabilizing member; characterised in that in the elastically deformed state, a free end of the first leg is a first distance from a free end of the second leg , wherein in the relaxed state, the free end of the first leg is a second distance from the free end of the second leg, wherein the second distance is different from the first distance.
Core-shell capsules comprising a fragrance-containing core and a shell formed around said core, wherein the shell is formed of at least one layer of polycarboxylic acid having a molecular weight of 1'000 to 10'000'000 Daltons, and wherein the shell consists of multiple layers of polycarboxylic acid, and wherein each layer of polycarboxylic acid is interposed with a layer of a different polymeric material, the polymer combinations of the shell being poly(acrylic acid) of 50,000g/mol/poly(vinyl pyrrolidone) of 40,000 g/mol, or poly(methacrylic acid)/ poly(vinyl pyrrolidone).
A network gateway comprising: a gateway function , implemented on the network gateway, wherein the gateway function is configured to perform one or more predetermined operations on or with respect to data reaching the gateway function, a first application implemented on the network gateway, wherein the first application is configured to participate in testing of the gateway function by exchanging data with a second application implemented on the network gateway, and a routing unit configured to route, using at least a first virtual network interface associated with the first application, through the gateway function, at least some of the data exchanged during the testing of the gateway function between the first application and the second application so that the at least some of the data reaches the gateway function . a gateway function , implemented on the network gateway, wherein the gateway function is configured to perform one or more predetermined operations on or with respect to data reaching the gateway function, a first application implemented on the network gateway, wherein the first application is configured to participate in testing of the gateway function by exchanging data with a second application implemented on the network gateway, and a routing unit configured to route, using at least a first virtual network interface associated with the first application, through the gateway function, at least some of the data exchanged during the testing of the gateway function between the first application and the second application so that the at least some of the data reaches the gateway function .
A robotic cleaner comprising: a chassis ; an agitator assembly configured to engage a surface to be cleaned; and a lift mechanism moveably coupling the agitator assembly to the chassis , the lift mechanism including a biasing mechanism , the biasing mechanism is configured to generate a biasing force that urges the agitator assembly in a direction away from the surface to be cleaned, the biasing force being insufficient to lift the agitator assembly from the surface to be cleaned, wherein the lift mechanism includes a top plate , a bottom plate , and a plurality of linkages , a first end of each linkage being pivotally coupled to the top plate and a second end of each linkage being slidably coupled to the bottom plate . a chassis ; an agitator assembly configured to engage a surface to be cleaned; and a lift mechanism moveably coupling the agitator assembly to the chassis , the lift mechanism including a biasing mechanism , the biasing mechanism is configured to generate a biasing force that urges the agitator assembly in a direction away from the surface to be cleaned, the biasing force being insufficient to lift the agitator assembly from the surface to be cleaned, wherein the lift mechanism includes a top plate , a bottom plate , and a plurality of linkages , a first end of each linkage being pivotally coupled to the top plate and a second end of each linkage being slidably coupled to the bottom plate .
A MEMS heating device for heating a sample in a microscope sample holder for transmission electron microscopy TEM, the MEMS heating device comprising: (a) at least one observation region , (b) a membrane on which a sample is placed at the observation region , (c) a thermally conductive structural frame which supports the periphery of the membrane and flanks the observation region , wherein the observation region is the region of the membrane that is unsupported by the structural frame , characterized in that the MEMS heating device further comprises: (d) at least one heat source element supported by the thermally conductive structural frame , wherein the at least one heat source element flanks but does not directly contact the at least one observation region , wherein the thermally conductive structural frame is heated by the at least one heat source element . (a) at least one observation region , (b) a membrane on which a sample is placed at the observation region , (c) a thermally conductive structural frame which supports the periphery of the membrane and flanks the observation region , wherein the observation region is the region of the membrane that is unsupported by the structural frame , characterized in that the MEMS heating device further comprises: (d) at least one heat source element supported by the thermally conductive structural frame , wherein the at least one heat source element flanks but does not directly contact the at least one observation region , wherein the thermally conductive structural frame is heated by the at least one heat source element .
A jig saw comprising a saw blade ; a plunger for a sawing movement of the saw blade along a plunger axis (A); and a clamping apparatus for fixedly clamping the saw blade to the plunger , wherein the clamping apparatus comprises an alignment surface for the saw blade , at least one clamping member , and an actuation device for acting on the clamping member , wherein a rotational movement of the actuation device about the plunger axis (A) can be converted into a clamping movement of the clamping member which takes place perpendicular to the plunger axis (A) and by which the clamping member acts on the saw blade in the direction of the alignment surface , characterized in that the clamping apparatus is supported by a carrier of the plunger , in that the carrier comprises a reception section for the saw blade into which the saw blade can be inserted and which forms the free end region of the carrier , wherein the actuation device surrounds the reception section of the carrier , and in that the reception section has form-fitting means which position a saw blade inserted into the reception section in the axial direction. a saw blade ; a plunger for a sawing movement of the saw blade along a plunger axis (A); and a clamping apparatus for fixedly clamping the saw blade to the plunger , wherein the clamping apparatus comprises an alignment surface for the saw blade , at least one clamping member , and an actuation device for acting on the clamping member , wherein a rotational movement of the actuation device about the plunger axis (A) can be converted into a clamping movement of the clamping member which takes place perpendicular to the plunger axis (A) and by which the clamping member acts on the saw blade in the direction of the alignment surface , characterized in that the clamping apparatus is supported by a carrier of the plunger , in that the carrier comprises a reception section for the saw blade into which the saw blade can be inserted and which forms the free end region of the carrier , wherein the actuation device surrounds the reception section of the carrier , and in that the reception section has form-fitting means which position a saw blade inserted into the reception section in the axial direction.
Electronic component, comprising: - a substrate , - at least one first electrode arranged on the substrate , - a growth layer on the side of the electrode facing the substrate , wherein - the electrode arranged on the growth layer has a metal layer with a thickness of less than or equal to 30 nm and the growth layer has a thickness which is less than or equal to 10 nm, - the electronic component is formed as an organic light-emitting diode and further has a second electrode and at least one organic functional layer arranged between the first electrode and the second electrode , and - the growth layer directly follows the organic functional layer in direction away from the substrate and the first electrode directly follows the growth layer and a functional layer, which is an anti-reflection layer, a scatter layer, a layer for colour conversion of light and/or a mechanical protective layer, directly follows the first electrode , characterized in that the growth layer is formed from Al 2 O 3 , WO 3 or Re 2 O 7 . - a substrate , - at least one first electrode arranged on the substrate , - a growth layer on the side of the electrode facing the substrate , wherein - the electrode arranged on the growth layer has a metal layer with a thickness of less than or equal to 30 nm and the growth layer has a thickness which is less than or equal to 10 nm, - the electronic component is formed as an organic light-emitting diode and further has a second electrode and at least one organic functional layer arranged between the first electrode and the second electrode , and - the growth layer directly follows the organic functional layer in direction away from the substrate and the first electrode directly follows the growth layer and a functional layer, which is an anti-reflection layer, a scatter layer, a layer for colour conversion of light and/or a mechanical protective layer, directly follows the first electrode , characterized in that the growth layer is formed from Al 2 O 3 , WO 3 or Re 2 O 7 .
An artificial fireplace , wherein the artificial fireplace comprises: a housing enclosing an internal space , wherein the housing is provided with a viewing opening that allows looking into the internal space ; a display in the housing provided for displaying a video including at least flames, wherein the display faces the internal space of the housing ; and a semi-transparent mirror , provided and arranged in the internal space of the housing in such a way that the video shown by the display is reflected in the direction of the viewing opening and that a rear part of the internal space , located behind the semi-transparent mirror , is visible through the viewing opening ; characterized in that the artificial fireplace further comprises a light-transmitting screen arranged in the viewing opening , wherein the light-transmitting screen is arranged to have its maximum light transmittance in a first direction (R1) and a reduced light transmittance in directions different from the first direction (R1), wherein the light-transmitting screen comprises a plate-shaped element provided with a regular pattern of light transmission openings so that the light-transmitting screen has its maximum light transmittance in the first direction (R1) and has a reduced light transmittance in the directions different from the first direction (R1), wherein the light transmission openings have a largest dimension in a horizontal direction (H) of at least 2.5 mm and at most 6.5 mm, wherein the light transmission openings have a smallest dimension in a vertical direction (V) of at least 1 mm and at most 3 mm, wherein the light transmission openings in the vertical direction (V) are tilted slightly out of the plane of the plate-shaped element , preferably over an angle of at most 10°, more preferably at most 8°, even more preferably at most 6°, yet even more preferably at most 4°, and most preferably at most 2°. a housing enclosing an internal space , wherein the housing is provided with a viewing opening that allows looking into the internal space ; a display in the housing provided for displaying a video including at least flames, wherein the display faces the internal space of the housing ; and a semi-transparent mirror , provided and arranged in the internal space of the housing in such a way that the video shown by the display is reflected in the direction of the viewing opening and that a rear part of the internal space , located behind the semi-transparent mirror , is visible through the viewing opening ;