mhurhangee/patent-ind-claim-en huggingface dataset:
Method for producing optical components having the following steps: - providing a first substrate and a second substrate , - providing a plurality of reinforcing elements by detaching them from one or more reinforcing substrates , - generating a stack by arranging the reinforcing elements on the first substrate , whereby each reinforcing element covers a region of the first substrate , a reinforcing element being arranged following the provision of the respective reinforcing element , - bringing the second substrate into contact with the stack , - heating and deforming the first substrate such that at least a part of the region of the first substrate covered by the respective reinforcing element is displaced and/or inclined. - providing a first substrate and a second substrate , - providing a plurality of reinforcing elements by detaching them from one or more reinforcing substrates , - generating a stack by arranging the reinforcing elements on the first substrate , whereby each reinforcing element covers a region of the first substrate , a reinforcing element being arranged following the provision of the respective reinforcing element , - bringing the second substrate into contact with the stack , - heating and deforming the first substrate such that at least a part of the region of the first substrate covered by the respective reinforcing element is displaced and/or inclined.
An abuse-deterrent formulation, comprising medicament, poloxamer, water-soluble anionic polysaccharide, and PEG ester; wherein: the medicament is or a pharmaceutically acceptable salt thereof; the poloxamer is poloxamer 124, the water-soluble anionic polysaccharide is gellan gum, and the PEG ester is polyoxyl stearate; wherein the weight ratio of poloxamer 124:gellan gum:polyoxyl stearate is about 40:30:30. the poloxamer is poloxamer 124, the water-soluble anionic polysaccharide is gellan gum, and the PEG ester is polyoxyl stearate; wherein the weight ratio of poloxamer 124:gellan gum:polyoxyl stearate is about 40:30:30.
A stator coil comprising: segment conductors each having a covered portion and a stripped portion, wherein two different segment conductors , out of the segment conductors , are connected at their stripped portions to each other in a stator coil end to form a connection part; and the covered portion comprising a conductive body and an insulating film covering the conductive body; and the stripped portion at which the insulating film has been stripped off; wherein the insulating film is constituted by three layers, characterised in that the stripped portion is provided with coating of a resin material through electrodeposition there to, wherein a boundary portion between the insulating film and the resin material has a same thickness as the thickness of the first and second layer in the insulating film . segment conductors each having a covered portion and a stripped portion, wherein two different segment conductors , out of the segment conductors , are connected at their stripped portions to each other in a stator coil end to form a connection part; and the covered portion comprising a conductive body and an insulating film covering the conductive body; and the stripped portion at which the insulating film has been stripped off; wherein the insulating film is constituted by three layers, characterised in that the stripped portion is provided with coating of a resin material through electrodeposition there to, wherein a boundary portion between the insulating film and the resin material has a same thickness as the thickness of the first and second layer in the insulating film .
Vehicle for public transport comprising a rack module suitable for housing at least one bottle suitable for containing a pressurized gas utilizable during the operation of said vehicle , said vehicle comprising a roof on which said rack module is mounted, said rack module being at least partially sunk into said roof and being realized integrated in said roof and comprising a housing substantially shaped as a box and defining a volume for housing at least one of said bottles which can be positioned either longitudinally or transversally with respect to said housing, said housing comprising a lower wall and a lateral wall extending axially from at least part of the perimeter of said lower wall , said rack module further comprising a cover configured to close said volume defined by said housing , wherein said rack module is sunk so that the height (H) of said rack module with respect to the ground is lower than the sum of the height (hr) of the roof with respect to the ground and the height (hm) of said rack module and wherein the height (H) of said rack module with respect to the ground is at maximum equal to the height of another module placed on said roof , said housing comprising an inclined wall extending from an upper extremity of said lateral wall and being configured to cooperate with said cover so as to isolate said volume from environment when said cover is closed.
A nose-wheel steering system , comprising: an actuator including a drive shaft configured to rotate about a first axis (B); a bevel gear rotationally coupled to the drive shaft of the actuator and configured to rotate about the first axis (B); a collar gear intermeshed with the bevel gear and configured to rotate about a second axis (A), the second axis (A) being generally perpendicular to the first axis (B); and a gear train rotationally coupled between the drive shaft of the actuator and the bevel gear , wherein the gear train includes a planetary gear system, the planetary gear system comprising: a non-rotating ring gear ; a planet gear configured to rotate about an inner circumferential surface of the non-rotating ring gear , wherein rotation of the planet gear is driven by rotation of the drive shaft about the first axis (B); a carrier coupled to the planet gear and configured to rotate the bevel gear , characterised in that an outer circumferential surface of the carrier defines a toothed surface of the bevel gear , the toothed surface of the bevel gear being intermeshed with the collar gear , and wherein the actuator includes a rotating vane and a stationary vane , and wherein the rotating vane is rotationally coupled to the drive shaft . an actuator including a drive shaft configured to rotate about a first axis (B); a bevel gear rotationally coupled to the drive shaft of the actuator and configured to rotate about the first axis (B); a collar gear intermeshed with the bevel gear and configured to rotate about a second axis (A), the second axis (A) being generally perpendicular to the first axis (B); and a gear train rotationally coupled between the drive shaft of the actuator and the bevel gear , wherein the gear train includes a planetary gear system, the planetary gear system comprising: a non-rotating ring gear ; a planet gear configured to rotate about an inner circumferential surface of the non-rotating ring gear , wherein rotation of the planet gear is driven by rotation of the drive shaft about the first axis (B); a carrier coupled to the planet gear and configured to rotate the bevel gear , a non-rotating ring gear ; a planet gear configured to rotate about an inner circumferential surface of the non-rotating ring gear , wherein rotation of the planet gear is driven by rotation of the drive shaft about the first axis (B); a carrier coupled to the planet gear and configured to rotate the bevel gear , characterised in that an outer circumferential surface of the carrier defines a toothed surface of the bevel gear , the toothed surface of the bevel gear being intermeshed with the collar gear , and wherein the actuator includes a rotating vane and a stationary vane , and wherein the rotating vane is rotationally coupled to the drive shaft .
A sleeve formed of a number of layers, wherein each layer is formed of two sleeve elements , wherein each sleeve element used to form the layers of the sleeve has a general form by means of which an opening is formed when two sleeve elements of each layer are brought together, characterized in that each sleeve element has two joining ears with openings , wherein the openings of the joining ears are placed in line with openings of joining ears of each layer of the sleeve, wherein screws are received in said openings of the joining ears of the sleeve elements and wherein at least the sleeve elements at one end of the sleeve have threaded openings for cooperation with threads of the screws .
A computer-implemented method of decomposing a near field signal and a far field signal, the method comprising: in a training phase for an autoencoder: acquiring , by a training algorithm, far field ventricle measurements; adding a synthetic local field signal; and detecting , by the training algorithm, a resulting far field signal and a residual near field signal; receiving measured signals ; encoding , by the trained autoencoder, the measured signals to produce a latent representation; and decoding , by the trained autoencoder, the latent representation to decompose a near field component and a far field component from the measured signals. in a training phase for an autoencoder: acquiring , by a training algorithm, far field ventricle measurements; adding a synthetic local field signal; and detecting , by the training algorithm, a resulting far field signal and a residual near field signal; acquiring , by a training algorithm, far field ventricle measurements; adding a synthetic local field signal; and detecting , by the training algorithm, a resulting far field signal and a residual near field signal; receiving measured signals ; encoding , by the trained autoencoder, the measured signals to produce a latent representation; and decoding , by the trained autoencoder, the latent representation to decompose a near field component and a far field component from the measured signals.
Method for calibrating an offset angle (PhiO) of a field-oriented control of an electric machine between an angle signal (W) of a position transducer and the direction of the rotor flux (RF), characterized by the steps of: periodically varying a current vector (Is) along a line of constant torque; ascertaining a speed signal (n_t) of the electric machine : calibrating the offset angle (PhiO) depending on the ascertained speed signal (n_t). periodically varying a current vector (Is) along a line of constant torque; ascertaining a speed signal (n_t) of the electric machine : calibrating the offset angle (PhiO) depending on the ascertained speed signal (n_t).
An isolated immunogen, comprising: a recombinant HIV-1 Env ectodomain trimer stabilized in a prefusion mature closed conformation by one or more amino acid substitutions compared to a native HIV-1 Env sequence; wherein the one or more amino acid substitutions comprise cysteine substitutions at HIV-1 Env positions 201 and 433 to introduce a non-natural disulfide bond between the cysteine substitutions, wherein the HIV-1 Env positions correspond to a HXB2 reference set forth as SEQ ID NO:1; the recombinant HIV-1 Env ectodomain trimer comprises three gp120-gp41 protomers comprising a gp120 polypeptide and a gp41 ectodomain; and the recombinant HIV-1 Env ectodomain trimer does not specifically bind to a CD4-induced antibody when incubated with a molar excess of sCD4, wherein the CD4-induced antibody is 17b mAb. a recombinant HIV-1 Env ectodomain trimer stabilized in a prefusion mature closed conformation by one or more amino acid substitutions compared to a native HIV-1 Env sequence; wherein the one or more amino acid substitutions comprise cysteine substitutions at HIV-1 Env positions 201 and 433 to introduce a non-natural disulfide bond between the cysteine substitutions, wherein the HIV-1 Env positions correspond to a HXB2 reference set forth as SEQ ID NO:1; the recombinant HIV-1 Env ectodomain trimer comprises three gp120-gp41 protomers comprising a gp120 polypeptide and a gp41 ectodomain; and the recombinant HIV-1 Env ectodomain trimer does not specifically bind to a CD4-induced antibody when incubated with a molar excess of sCD4, wherein the CD4-induced antibody is 17b mAb.
An apparatus comprising: a first photodetector and a second photodetector , wherein the apparatus is configured to receive light and to detect a target wavelength, the target wavelength being wavelength of interest; the first photodetector is configured to detect a first portion of the light, and the first photodetector and the second photodetector are in a stacked arrangement and the apparatus is configured to pass a second portion of the light through the first photodetector to the second photodetector, wherein the second portion of light is half of light incident on the first photodetector, the apparatus comprising an optical blocking filter configured to filter the second portion of the light prior to the second portion of the light arriving at the second photodetector, wherein the optical blocking filter is configured to block the target wavelength such that the second photodetector receives unwanted wavelengths, and wherein the apparatus is configured to subtract the signals detected by the first and second photodetectors from each other to produce a physiological measurement result. a first photodetector and a second photodetector , wherein the apparatus is configured to receive light and to detect a target wavelength, the target wavelength being wavelength of interest; the first photodetector is configured to detect a first portion of the light, and the first photodetector and the second photodetector are in a stacked arrangement and the apparatus is configured to pass a second portion of the light through the first photodetector to the second photodetector, wherein the second portion of light is half of light incident on the first photodetector, the apparatus comprising an optical blocking filter configured to filter the second portion of the light prior to the second portion of the light arriving at the second photodetector, wherein the optical blocking filter is configured to block the target wavelength such that the second photodetector receives unwanted wavelengths, and wherein the apparatus is configured to subtract the signals detected by the first and second photodetectors from each other to produce a physiological measurement result.
An apparatus , comprising: a first cap ; a second cap including a proximal end, a distal end, and a longitudinal axis; a needle hub connected to the second cap; a needle including a first, beveled end configured to receive an implant , and a second end disposed within a hub pocket of the needle hub, the first cap connected to the needle hub and disposed at a proximal end of the second cap; a pusher wire and a pusher wire connector disposed within the needle hub; wherein the pusher wire, the pusher wire connector, and the needle are substantially aligned with one another along the longitudinal axis of the second cap; and an applicator including a wheel axle and a wheel hub operably configured to move a shuttle using a thread connected to the wheel hub and the shuttle, wherein movement of the shuttle causes movement of the pusher wire. a first cap ; a second cap including a proximal end, a distal end, and a longitudinal axis; a needle hub connected to the second cap; a needle including a first, beveled end configured to receive an implant , and a second end disposed within a hub pocket of the needle hub, the first cap connected to the needle hub and disposed at a proximal end of the second cap; a pusher wire and a pusher wire connector disposed within the needle hub; wherein the pusher wire, the pusher wire connector, and the needle are substantially aligned with one another along the longitudinal axis of the second cap; and an applicator including a wheel axle and a wheel hub operably configured to move a shuttle using a thread connected to the wheel hub and the shuttle, wherein movement of the shuttle causes movement of the pusher wire.
Control apparatus having at least a first energy storage unit for a motor vehicle and a second energy storage unit for the motor vehicle , which has a non-volatile memory having a first initial configuration of the first energy storage unit and a second initial configuration of the second energy storage unit , wherein the non-volatile memory is connected in a data-transmitting manner to a further memory having an adaptation configuration of the first energy storage unit and of the second energy storage unit , wherein the adaptation configuration is used to at least partially adapt the initial configurations ; the non-volatile memory has a first memory part having the first initial configuration and a second memory part which is functionally decoupled from the first memory part and has the second initial configuration ; wherein the first memory part is connected to a voltage supply for the first energy storage unit and the second memory part is connected to a voltage supply for the second energy storage unit , and the first memory part is electrically connected to the further memory using a first data line and the second memory part is electrically connected to the further memory using a second data line which differs from the first data line , and the further memory is connected only to a voltage supply for the second energy storage unit ; wherein the control apparatus has a functional unit which controls the first energy storage unit and the second energy storage unit on the basis of the first initial configuration and the second initial configuration ; wherein the functional unit is electrically connected directly to the first memory part by means of a third data line and is electrically connected directly to the further memory by means of a further data line; wherein, if the second energy storage unit fails, the functional unit is set up to obtain the first initial configuration directly from the first memory part via the third data line .
A method for producing a continuous filament from electrospun fibres , comprising: providing a conducting wire to provide a collection surface that is an elongate, three-dimensional surface; forming an attractive electric field gradient between the collection surface and a source of electrically charged fibres ; moving the collection surface in a longitudinal direction relative to the source of electrically charged fibres ; and collecting the fibres on the collection surface so as to form a continuous filament . providing a conducting wire to provide a collection surface that is an elongate, three-dimensional surface; forming an attractive electric field gradient between the collection surface and a source of electrically charged fibres ; moving the collection surface in a longitudinal direction relative to the source of electrically charged fibres ; and collecting the fibres on the collection surface so as to form a continuous filament .
A particulate laundry detergent composition comprising: a) from 3 to 60% by weight based on the total weight of the composition of one or more detersive surfactants selected from non-soap anionic surfactants, nonionic surfactants and mixtures thereof; b) from 0.01 to 1% by weight based on the total weight of the composition of a fragrance formulation (f1) which is in the form of free droplets dispersed in the composition; c) from 0.01 to 1% by weight based on the total weight of the composition of a fragrance formulation (f2) which is entrapped within discrete polymeric microparticles dispersed in the composition; in which the total amount of fragrance formulation (f1) and fragrance formulation (f2) ranges from 0.05 to 1.5% by weight based on the total weight of the composition; and in which the weight ratio of fragrance formulation (f1) to fragrance formulation (f2) in the composition ranges from of 60:40 to 30:70. a) from 3 to 60% by weight based on the total weight of the composition of one or more detersive surfactants selected from non-soap anionic surfactants, nonionic surfactants and mixtures thereof; b) from 0.01 to 1% by weight based on the total weight of the composition of a fragrance formulation (f1) which is in the form of free droplets dispersed in the composition; c) from 0.01 to 1% by weight based on the total weight of the composition of a fragrance formulation (f2) which is entrapped within discrete polymeric microparticles dispersed in the composition;
A seatbelt for a motor vehicle seat (V), including a strap and a tongue capable of sliding along the strap and at least one stop supporting at least loop , the two ends of which are contiguous and secured to the strap , the flexible portion of the loop being able to receive the tongue at the end of travel against the stop , the flexible portion of the loop comprises at least two lobes obtained by locally pressing the flexible portion of the loop towards the centre thereof so as to form a fold constituted by the contiguous pressed portions of the loop being held secured together, characterized in that the loop is oriented along a principal direction of the strap , the contiguous ends of the loop being oriented in the same direction as that of the strap .
A surgical instrument , comprising: a housing ; an elongated shaft assembly operably coupled to said housing and defining a shaft axis (SA); a surgical end effector defining an end effector axis (EA) and being operably coupled to said elongated shaft assembly for selective articulation relative thereto between a first home position wherein said end effector axis is aligned with said shaft axis and a first maximum articulated position wherein said end effector axis is positioned at a first maximum articulation angle relative to said shaft axis; and an articulation motor operably supported by said housing and operably interfacing with said surgical end effector to move said surgical end effector between said first home position and said first maximum articulated position, said articulation motor configured to operate at a first motor speed to articulate said end effector from said first home position to a first articulated position wherein said end effector axis is positioned at a first articulation angle relative to said shaft axis and wherein said first articulation angle is less than said first maximum articulation angle, said articulation motor being further configured to operate at a second motor speed to articulate said surgical end effector from said first articulated position to said first maximum articulated position, wherein said second motor speed differs from said first motor speed; wherein said articulation motor comprises a rotary articulation drive shaft mechanically linked to a switching system supported by said housing for controlling said first and second motor speeds. a housing ; an elongated shaft assembly operably coupled to said housing and defining a shaft axis (SA); a surgical end effector defining an end effector axis (EA) and being operably coupled to said elongated shaft assembly for selective articulation relative thereto between a first home position wherein said end effector axis is aligned with said shaft axis and a first maximum articulated position wherein said end effector axis is positioned at a first maximum articulation angle relative to said shaft axis; and an articulation motor operably supported by said housing and operably interfacing with said surgical end effector to move said surgical end effector between said first home position and said first maximum articulated position, said articulation motor configured to operate at a first motor speed to articulate said end effector from said first home position to a first articulated position wherein said end effector axis is positioned at a first articulation angle relative to said shaft axis and wherein said first articulation angle is less than said first maximum articulation angle, said articulation motor being further configured to operate at a second motor speed to articulate said surgical end effector from said first articulated position to said first maximum articulated position, wherein said second motor speed differs from said first motor speed; wherein said articulation motor comprises a rotary articulation drive shaft mechanically linked to a switching system supported by said housing for controlling said first and second motor speeds.