mhurhangee/ep-ind-claims huggingface dataset:
A key assembly for an electronic device, the key assembly comprising: at least one pair of switches (544a, 544b); a deflection web disposed adjacent the at least one pair of switches (544a, 544b), the deflection web including at least one pair of actuators (534a, 534b) and a web connector connecting the at least one pair of actuators (534a, 534b); at least one key supported by the at least one pair of actuators (534a, 534b) opposite the at least one pair of switches (544a, 544b), the at least one key including a body having: a first external contact portion being movable to move a first actuator of the at least one pair of actuators (534a, 534b) to thereby actuate a first switch of the at least one pair of switches (544a, 544b); a second external contact portion being movable to move a second actuator of the at least one pair of actuators (534a, 534b) to thereby actuate a second switch of the at least one pair of switches (544a, 544b); a deflection web support engaging the deflection web and disposed between the deflection web and the at least one pair of switches (544a, 544b); and wherein the body of the at least one key pivots about the first external contact portion when the second external contact portion moves to thereby actuate the second switch, and the body of the at least one key pivots about the second external contact portion when the first external contact portion moves to thereby actuate the first switch. at least one pair of switches (544a, 544b); a deflection web disposed adjacent the at least one pair of switches (544a, 544b), the deflection web including at least one pair of actuators (534a, 534b) and a web connector connecting the at least one pair of actuators (534a, 534b); at least one key supported by the at least one pair of actuators (534a, 534b) opposite the at least one pair of switches (544a, 544b), the at least one key including a body having: a first external contact portion being movable to move a first actuator of the at least one pair of actuators (534a, 534b) to thereby actuate a first switch of the at least one pair of switches (544a, 544b); a second external contact portion being movable to move a second actuator of the at least one pair of actuators (534a, 534b) to thereby actuate a second switch of the at least one pair of switches (544a, 544b); a first external contact portion being movable to move a first actuator of the at least one pair of actuators (534a, 534b) to thereby actuate a first switch of the at least one pair of switches (544a, 544b); a second external contact portion being movable to move a second actuator of the at least one pair of actuators (534a, 534b) to thereby actuate a second switch of the at least one pair of switches (544a, 544b); a deflection web support engaging the deflection web and disposed between the deflection web and the at least one pair of switches (544a, 544b); and
A method for gain shape vector encoding performed by an audio encoder, where the encoding of each vector segment is subjected to a constraint related to a maximum number of bits, B MAX, allowed for encoding a vector segment, the method comprising: - determining (101, 201) an initial number, Np_ init, of segments for a target vector x based at least on B MAX and number of bits allocated for encoding the entire vector x; - determining a log-energy of each Np _init target vector segment by summing energies of samples within the vector segment; - determining (102, 202) an average number of bits per segment, B AVG, based on the number of bits allocated for encoding the entire vector x and Np_ init; - determining a final number of segments to be used in the gain shape vector encoding by increasing the number of segments, as compared to the initial number, for the target vector x, when the difference between B MAX and B AVG is smaller than a threshold, wherein the threshold depends on a maximum deviation of a target vector segment energy from an average per-segment energy value, E AVG, for the target vector x. - determining (101, 201) an initial number, Np_ init, of segments for a target vector x based at least on B MAX and number of bits allocated for encoding the entire vector x; - determining a log-energy of each Np _init target vector segment by summing energies of samples within the vector segment; - determining (102, 202) an average number of bits per segment, B AVG, based on the number of bits allocated for encoding the entire vector x and Np_ init; - determining a final number of segments to be used in the gain shape vector encoding by increasing the number of segments, as compared to the initial number, for the target vector x, when the difference between B MAX and B AVG is smaller than a threshold, wherein the threshold depends on a maximum deviation of a target vector segment energy from an average per-segment energy value, E AVG, for the target vector x.
A child resistant slider zipper closure system comprising: (a) a reclosable zipper closure with a male track and a female track having complementary profiles for interlocking and unlocking; (b) a notch defined by the complementary profiles; the notch being spaced from an end of the slider zipper closure system; and (c) a slider being slidably located on the zipper closure, the slider including a flexible tab with a torpedo; when the slider is moved into a vicinity of the notch, the tab being selectively moveable into a position to be between the male track and female track and result in separation of the interlocking complementary profiles as the slider is moved in an opening direction along the zipper closure. (a) a reclosable zipper closure with a male track and a female track having complementary profiles for interlocking and unlocking; (b) a notch defined by the complementary profiles; the notch being spaced from an end of the slider zipper closure system; and (c) a slider being slidably located on the zipper closure, the slider including a flexible tab with a torpedo; when the slider is moved into a vicinity of the notch, the tab being selectively moveable into a position to be between the male track and female track and result in separation of the interlocking complementary profiles as the slider is moved in an opening direction along the zipper closure.
A moving mechanism (1, 10) for moving a cover element, the mechanism (1, 10) being apt to be arranged inside a wall set on a tread floor and having a compartment obtained therein, said mechanism being configured so as to move the cover element between a first position wherein it lies substantially flush with the wall for closing the compartment, and a second raised position such as to make the compartment accessible from the outside, said mechanism comprising: • a carriage (11, 11') connected in use to said cover element and comprising a first top member (111, 111') and a second bottom member (112, 112'); • substantially rectilinear guide means comprising a partitioning element (5, 50), apt to outline a first top guide for allowing a sliding of at least said first top member and a second bottom guide for allowing a sliding of said second bottom member, said first top guide comprising near said partitioning element a portion tilted by a first angle (α, α'), greater than zero, with respect to the tread floor; • a moving system associated to said carriage, apt to move said cover element between said first and second position, wherein said partitioning element (5, 50) defines an upwards-tilted path of said tilted portion of said first top guide, and characterized in that a second path defined by said second bottom guide is in an offset position with respect of a first path defined by said first top guide, in order to allow a tilt of the cover element during the movement between the first position and the second position such as to assure no interference between the cover element and the comportment useful as space for putting away items, wherein said carriage is removably connectable to the cover element by an extractable joining element (15, 150). • a carriage (11, 11') connected in use to said cover element and comprising a first top member (111, 111') and a second bottom member (112, 112'); • substantially rectilinear guide means comprising a partitioning element (5, 50), apt to outline a first top guide for allowing a sliding of at least said first top member and a second bottom guide for allowing a sliding of said second bottom member, said first top guide comprising near said partitioning element a portion tilted by a first angle (α, α'), greater than zero, with respect to the tread floor; • a moving system associated to said carriage, apt to move said cover element between said first and second position,
A direct current power supply system, comprising N power supply devices, N triple-pole direct current switches, a positive bus, an M bus, and a negative bus, wherein N is an integer greater than or equal to 1; a positive input terminal of an i th triple-pole direct current switch is coupled to a first output terminal of an i th power supply device, an M input terminal of the i th triple-pole direct current switch is coupled to a second output terminal of the i th power supply device, a negative input terminal of the i th triple-pole direct current switch is coupled to a third output terminal of the i th power supply device, a positive output terminal of the i th triple-pole direct current switch is coupled to the positive bus, an M input terminal of the i th triple-pole direct current switch is coupled to the M bus, and a negative output terminal of the i th triple-pole direct current switch is coupled to the negative bus, wherein i=1, 2,..., N; and the i th power supply device is configured to provide a direct current characterized in that an overcurrent setting value of an M-electrode of the triple-pole direct current switch is less than an overcurrent setting value of a positive electrode of the triple-pole direct current switch and an overcurrent setting value of a negative electrode of the triple-pole direct current switch. a positive input terminal of an i th triple-pole direct current switch is coupled to a first output terminal of an i th power supply device, an M input terminal of the i th triple-pole direct current switch is coupled to a second output terminal of the i th power supply device, a negative input terminal of the i th triple-pole direct current switch is coupled to a third output terminal of the i th power supply device, a positive output terminal of the i th triple-pole direct current switch is coupled to the positive bus, an M input terminal of the i th triple-pole direct current switch is coupled to the M bus, and a negative output terminal of the i th triple-pole direct current switch is coupled to the negative bus, wherein i=1, 2,..., N; and the i th power supply device is configured to provide a direct current characterized in that an overcurrent setting value of an M-electrode of the triple-pole direct current switch is less than an overcurrent setting value of a positive electrode of the triple-pole direct current switch and an overcurrent setting value of a negative electrode of the triple-pole direct current switch.
Light grid unit for forming a transmitter and/or a receiver of a light grid securing device for an automatically driven gate provided with rails, comprising a profiled housing for receiving an elongate light grid element configured to emit or receive a series of light rays, wherein the profiled housing at least comprises an abutment portion configured for the profiled housing to abut against a rail of the gate in the direction of the longitudinal extent of the rail, characterized in that a) the abutment portion includes a projection for frictionally capturing the rail and/or b) the light grid unit further comprises at least one spacer for spacing the rail from the profiled housing, wherein the spacer comprises a first pair of contact areas with a first spacing, wherein the first pair of contact areas is connectable to the profiled housing and to the rail, that the spacer comprises a second pair of contact areas with a second spacing, wherein the second pair of contact areas is connectable to the profiled housing and to the rail, wherein the first spacing is smaller than the second spacing to render the rail and the profiled housing spaceable corresponding to the arrangement of the spacer. a) the abutment portion includes a projection for frictionally capturing the rail and/or b) the light grid unit further comprises at least one spacer for spacing the rail from the profiled housing, wherein the spacer comprises a first pair of contact areas with a first spacing, wherein the first pair of contact areas is connectable to the profiled housing and to the rail, that the spacer comprises a second pair of contact areas with a second spacing, wherein the second pair of contact areas is connectable to the profiled housing and to the rail, wherein the first spacing is smaller than the second spacing to render the rail and the profiled housing spaceable corresponding to the arrangement of the spacer.
A reinforcing element for a liquid container for a motor vehicle, having at least one connecting section for connecting the reinforcing element to the liquid container, characterized in that the connecting section having at least a first and a second web (6, 8, 62, 76, 78) which are made from a first material and are enclosed at least in sections by a second material, the second material penetrating through openings (12, 16, 18, 58, 80) of the webs (6, 8).
A process for the preparation of methyl -1-acetyl-3-(methoxy(phenyl)methylene)-2-oxoindoline-6-carboxylate comprising the steps of a) reacting methyl 2-oxoindoline-6-carboxylate with acetic anhydride in a high boiling aromatic hydrocarbon solvent to produce a methyl 1-acetyl-2-oxoindoline-6-carboxylate intermediate in solution, b) distilling off parts of the reaction solvent mixture, c) optionally adding fresh reaction solvent to the reaction vessel to compensate for the solvent distilled off, d) reacting the methyl 1-acetyl-2-oxoindoline-6-carboxylate intermediate with trimethyl orthobenzoate, e) distilling off parts of the reaction solvent mixture, f) cooling the reaction mixture, and g) isolating the solid product. a) reacting methyl 2-oxoindoline-6-carboxylate with acetic anhydride in a high boiling aromatic hydrocarbon solvent to produce a methyl 1-acetyl-2-oxoindoline-6-carboxylate intermediate in solution, b) distilling off parts of the reaction solvent mixture, c) optionally adding fresh reaction solvent to the reaction vessel to compensate for the solvent distilled off, d) reacting the methyl 1-acetyl-2-oxoindoline-6-carboxylate intermediate with trimethyl orthobenzoate, e) distilling off parts of the reaction solvent mixture, f) cooling the reaction mixture, and g) isolating the solid product.
A method, comprising: establishing a wireless communication connection between an exit device (20; 100) and a management system remote from the exit device (20; 100); receiving, by the exit device (20; 100) and via the wireless communication connection, an instruction from the management system to change a dogging state of the exit device (20; 100) by moving a dogging mechanism of the exit device (20; 100) to one of an undogged state or a dog-on-next-exit state; and moving the dogging mechanism to the one of the undogged state or the dog-on-next-exit state in response to the instruction, wherein a pushbar of the exit device (20; 100) is in an extended position when the dogging mechanism is in the undogged state and is retained in a retracted position when the dogging mechanism is in the dogged state, and wherein the pushbar is positioned to be held in the retracted position by the dogging mechanism upon a next depression of the pushbar by a user when the dogging mechanism is in the dog-on-next-exit state. establishing a wireless communication connection between an exit device (20; 100) and a management system remote from the exit device (20; 100); receiving, by the exit device (20; 100) and via the wireless communication connection, an instruction from the management system to change a dogging state of the exit device (20; 100) by moving a dogging mechanism of the exit device (20; 100) to one of an undogged state or a dog-on-next-exit state; and moving the dogging mechanism to the one of the undogged state or the dog-on-next-exit state in response to the instruction, wherein a pushbar of the exit device (20; 100) is in an extended position when the dogging mechanism is in the undogged state and is retained in a retracted position when the dogging mechanism is in the dogged state, and wherein the pushbar is positioned to be held in the retracted position by the dogging mechanism upon a next depression of the pushbar by a user when the dogging mechanism is in the dog-on-next-exit state.
Slip-ring assembly for a rotor of an electrical machine, in particular a three-phase generator, comprising at least one first slip ring, wherein at least one first connecting conductor is held, in sections, in an insulating material of the slip-ring assembly, the said first connecting conductor being electrically conductively connected to the at least one first slip ring, and comprising an end of the connecting conductor, which end is averted from the first slip ring and is provided for electrical connection to a field coil, characterized in that the slip-ring assembly has a further shaped conductor which forms a direct electrical connection from the first connecting conductor to a surface of the slip-ring assembly which is not in direct contact with iron-core or magnetic parts of the rotor, wherein either the further shaped conductor is mounted on the at least one first connecting conductor as a separate component or the further shaped conductor is integrally formed on the at least one first connecting conductor.
A method for processing animals, the method including: - providing a carrier (16, 18, 20, 22) for holding a plurality of animals; - providing a multi-task station; - locating an animal on at least part of the carrier at the multi-task station; - weighing the animal at the multi-task station; - providing a volume of rinse solution for introduction into the circulatory system of the animal at the multi-task station, wherein the volume of rinse solution is based on the weight of the animal; and - initiating a rinse prior to weighing a subsequent animal at the multi-task station. - providing a carrier (16, 18, 20, 22) for holding a plurality of animals; - providing a multi-task station; - locating an animal on at least part of the carrier at the multi-task station; - weighing the animal at the multi-task station; - providing a volume of rinse solution for introduction into the circulatory system of the animal at the multi-task station, wherein the volume of rinse solution is based on the weight of the animal; and - initiating a rinse prior to weighing a subsequent animal at the multi-task station.
A composition comprising an agent having lysosomal phospholipase A2 (LPLa2) enzymatic activity for use in treatment of SLE (systemic lupus erythematosus) in a patient, wherein the agent having LPLA2 enzymatic activity is a protein comprising an amino acid sequence selected from the group consisting of (a) SEQ ID NOs: 1-288, (b) an LPLA2 enzyme comprising one or more mannose residues, (c) a human LPLA2 enzyme comprising the catalytic consensus sequence A-X-S-X-G, (d) the amino acid sequence set out in SEQ ID NO: 1 comprising a cysteine bond corresponding to the cysteine bond between the Cys at position 65 and the Cys 89, (e) amino acid sequence having at least 80% identity to the amino acid sequence of a fragment of SEQ ID NO: 1 that is at least 75 residues in length and comprising amino acids 196-200 of SEQ ID NO: 1, (f) a human LPLA2 enzyme that comprises the catalytic site corresponding to amino acids 196-200 of SEQ ID NO: 1. (a) SEQ ID NOs: 1-288, (b) an LPLA2 enzyme comprising one or more mannose residues, (c) a human LPLA2 enzyme comprising the catalytic consensus sequence A-X-S-X-G, (d) the amino acid sequence set out in SEQ ID NO: 1 comprising a cysteine bond corresponding to the cysteine bond between the Cys at position 65 and the Cys 89, (e) amino acid sequence having at least 80% identity to the amino acid sequence of a fragment of SEQ ID NO: 1 that is at least 75 residues in length and comprising amino acids 196-200 of SEQ ID NO: 1, (f) a human LPLA2 enzyme that comprises the catalytic site corresponding to amino acids 196-200 of SEQ ID NO: 1.
A method of operating a first access point comprising: operating during a first period of time in a network monitoring mode of operation, including: measuring signals received from a second access point while refraining from transmitting in the frequency band in which said signals are being received from the second access point, said measuring being performed using a monitoring mode antenna configuration which is different from an antenna configuration used during a communications mode of operation, said monitoring mode antenna configuration being either predetermined or specified by a control signal received at the first access point from a control device outside the first access point; and operating during a second period of time in the communications mode of operation. measuring signals received from a second access point while refraining from transmitting in the frequency band in which said signals are being received from the second access point, said measuring being performed using a monitoring mode antenna configuration which is different from an antenna configuration used during a communications mode of operation, said monitoring mode antenna configuration being either predetermined or specified by a control signal received at the first access point from a control device outside the first access point; and operating during a second period of time in the communications mode of operation.
A method relating to a secondary use of at least one radio resource having a predefined primary use, the method being carried out by a transmitter of a secondary user equipment and comprising: in response to a decision to engage in a secondary use of the at least one radio resource, transmitting (105;133;155) a radio signal using the at least one radio resource, the method being characterised by: providing (105;133;155) the radio signal with a predefined identifier that identifies the radio signal as a secondary use of the at least one radio resource. in response to a decision to engage in a secondary use of the at least one radio resource, transmitting (105;133;155) a radio signal using the at least one radio resource, the method being characterised by: providing (105;133;155) the radio signal with a predefined identifier that identifies the radio signal as a secondary use of the at least one radio resource. providing (105;133;155) the radio signal with a predefined identifier that identifies the radio signal as a secondary use of the at least one radio resource.
A recombinant nucleic acid molecule encoding a 4-hydroxyphenylpyruvate dioxygenase (HPPD) enzyme, wherein said nucleic acid molecule encodes an amino acid sequence having at least 90% sequence identity to SEQ ID NO:1 and the amino acid substitutions of: substituting glutamic acid with a proline at the amino acid position corresponding to amino acid position 335 of SEQ ID NO:1, substituting glycine with a tryptophan at the amino acid position corresponding to amino acid position 336 of SEQ ID NO:1, substituting lysine with an alanine at the amino acid position corresponding to amino acid position 339 of SEQ ID NO:1, and substituting alanine with a glutamine at the amino acid position corresponding to amino acid position 340 of SEQ ID NO:1; wherein said HPPD enzyme is tolerant to an HPPD inhibitor herbicide.