mhurhangee/ep-ind-claims huggingface dataset:
Stator segment of a stator of a dynamoelectric machine having - grooved sheets arranged axially one after another so as to form grooves that run essentially axially, - coils arranged in the grooves, one coil side or two coil sides of different coils being arranged in one groove, - the sheets having at least one open groove on their outer bounding sides parallel to the groove, - an open groove being part of a groove on the outer rim of the stator segment, - the coil sides being fixed on a stator segment in the open grooves using non-magnetic attachment means, - spacers being provided after a predefined number of sheets in the axial direction, so that when seen in the axial direction two or more part sheet stacks of the stator segment are present, - the non-magnetic attachment means taking the form of non-magnetic cable ties, - the non-magnetic cable ties being arranged in the region of the sheets that are spaced axially apart from one another, the cable tie being guided around at least a portion of the respective spacer. - grooved sheets arranged axially one after another so as to form grooves that run essentially axially, - coils arranged in the grooves, one coil side or two coil sides of different coils being arranged in one groove, - the sheets having at least one open groove on their outer bounding sides parallel to the groove, - an open groove being part of a groove on the outer rim of the stator segment, - the coil sides being fixed on a stator segment in the open grooves using non-magnetic attachment means, - spacers being provided after a predefined number of sheets in the axial direction, so that when seen in the axial direction two or more part sheet stacks of the stator segment are present, - the non-magnetic attachment means taking the form of non-magnetic cable ties, - the non-magnetic cable ties being arranged in the region of the sheets that are spaced axially apart from one another, the cable tie being guided around at least a portion of the respective spacer.
A communication system comprising: an operating environment proximate a plurality of elevator car locations; and at least one Bluetooth Low Energy access point device connectable to a mobile device located within the operating environment upon receipt of a BLE signal by the mobile device, the mobile device permitting a single BLE access point device of the at least one BLE access point devices to connect to the mobile device at a time, for requesting an elevator assignment from the connected BLE access point device, the BLE access point devices each being a BLE central communication device and the mobile device being a BLE peripheral communication device.
An electronic device (100, 200, 300, 400, 500) comprising: a housing comprising a first panel coupled to a second panel; a first antenna region comprising at least one first antenna (1070, 1072) positioned adjacent to the first panel; and a second antenna region comprising at least one second antenna (1084, 1086) positioned adjacent to the second panel, wherein the at least one second antenna (1084, 1086) is activated when the housing is in an unfolded configuration, and the at least one second antenna (1084, 1086) is deactivated when the housing is in a folded configuration; a first display disposed in the first panel; a first ground plane region (250, 670) positioned adjacent to the first display; a second display disposed in the second panel; wherein the first antenna region and the second antenna region have a vertical and horizontal offset from one another in the unfolded configuration, wherein a shorting connection between the at least one second antenna (1084, 1086) and the first ground plane region (250, 670) is formed when the housing is transitioned from the unfolded configuration to the folded configuration, and wherein the first display is active when the housing is in the folded configuration, and the first display and the second display are both active when the housing is in an unfolded configuration. a housing comprising a first panel coupled to a second panel; a first antenna region comprising at least one first antenna (1070, 1072) positioned adjacent to the first panel; and a second antenna region comprising at least one second antenna (1084, 1086) positioned adjacent to the second panel, wherein the at least one second antenna (1084, 1086) is activated when the housing is in an unfolded configuration, and the at least one second antenna (1084, 1086) is deactivated when the housing is in a folded configuration; a first display disposed in the first panel; a first ground plane region (250, 670) positioned adjacent to the first display; a second display disposed in the second panel; wherein the first antenna region and the second antenna region have a vertical and horizontal offset from one another in the unfolded configuration, wherein a shorting connection between the at least one second antenna (1084, 1086) and the first ground plane region (250, 670) is formed when the housing is transitioned from the unfolded configuration to the folded configuration, and wherein the first display is active when the housing is in the folded configuration, and the first display and the second display are both active when the housing is in an unfolded configuration.
An acoustic transducer comprising: - a sound source adapted to emit an acoustic radiation along a prevalent emission axis; - a horn operatively coupled to the sound source and having an internally hollow main body which extends between an inlet opening, adapted to receive said acoustic radiation, and an outlet opening for the external broadcasting of said radiation, wherein the main body has walls which delimit a flared conduit having a variable section which allows the propagation of the acoustic radiation between the inlet opening and the outlet opening, wherein the main body extends along a prevalent longitudinal extension axis which is misaligned with respect to the prevalent emission axis of the sound source; wherein: - the horn comprises, inside the flared conduit, one or more obstacles (101,102) which locally narrow the section of the flared conduit in at least two transverse directions (D11-D12) with respect to the prevalent longitudinal extension axis; - said obstacles (101,102) are elements which protrude from inner walls of the flared conduit; - the horn comprises at least two of said obstacles (101,102); - characterised in that said at least two obstacles are arranged in mutually opposite positions with respect to said prevalent longitudinal extension axis. - a sound source adapted to emit an acoustic radiation along a prevalent emission axis; - a horn operatively coupled to the sound source and having an internally hollow main body which extends between an inlet opening, adapted to receive said acoustic radiation, and an outlet opening for the external broadcasting of said radiation, wherein the main body has walls which delimit a flared conduit having a variable section which allows the propagation of the acoustic radiation between the inlet opening and the outlet opening, wherein the main body extends along a prevalent longitudinal extension axis which is misaligned with respect to the prevalent emission axis of the sound source; wherein: - the horn comprises, inside the flared conduit, one or more obstacles (101,102) which locally narrow the section of the flared conduit in at least two transverse directions (D11-D12) with respect to the prevalent longitudinal extension axis; - said obstacles (101,102) are elements which protrude from inner walls of the flared conduit; - the horn comprises at least two of said obstacles (101,102); - characterised in that said at least two obstacles are arranged in mutually opposite positions with respect to said prevalent longitudinal extension axis. - the horn comprises, inside the flared conduit, one or more obstacles (101,102) which locally narrow the section of the flared conduit in at least two transverse directions (D11-D12) with respect to the prevalent longitudinal extension axis; - said obstacles (101,102) are elements which protrude from inner walls of the flared conduit; - the horn comprises at least two of said obstacles (101,102); - characterised in that said at least two obstacles are arranged in mutually opposite positions with respect to said prevalent longitudinal extension axis.
An isolated polypeptide having protease activity, wherein the polypeptide has at least 90%, at least 91%, at least 92%, at least 93%, at least 94%, at least 95%, at least 96%, at least 97%, at least 98%, at least 99%, or 100% sequence identity to the mature polypeptide of SEQ ID NO: 2.
Method for controlling an internal combustion engine wherein - at a first operating point of the internal combustion engine, the value of a first characteristic parameter (R; C) of said operating point is acquired, and from this a first liquid coolant temperature setpoint in the internal combustion engine and a first richness setpoint of the mixture of air and fuel to be admitted into the internal combustion engine are deduced, - on passing a second operating point different from the first operating point, the value of said parameter (R; C) is acquired and from this, second setpoints for temperature and richness are deduced, characterized in that if the second temperature setpoint is strictly lower than the first temperature setpoint (CTI1; E7), provision is made to perform the following steps: a) determination of an additional richness (Δr) to be added to the second richness setpoint (Cr2; E8), b) acquisition of the burned gas temperature (Tgb; E11), and c) progressive reduction of the additional richness (Δr) as a function of the burned gas temperature (Tgb) acquired (E12; E8). - at a first operating point of the internal combustion engine, the value of a first characteristic parameter (R; C) of said operating point is acquired, and from this a first liquid coolant temperature setpoint in the internal combustion engine and a first richness setpoint of the mixture of air and fuel to be admitted into the internal combustion engine are deduced, - on passing a second operating point different from the first operating point, the value of said parameter (R; C) is acquired and from this, second setpoints for temperature and richness are deduced, a) determination of an additional richness (Δr) to be added to the second richness setpoint (Cr2; E8), b) acquisition of the burned gas temperature (Tgb; E11), and c) progressive reduction of the additional richness (Δr) as a function of the burned gas temperature (Tgb) acquired (E12; E8).
A screening star for a screening device, the screening star comprising: 1.1 a hub for non-rotatably arranging the screening star on a rotatable shaft; and 1.2 elastically flexible fingers (5a-m) which protrude radially outwards from the hub in a distribution in the circumferential direction about a rotational axis of the screening star and which each extend in the circumferential direction from a base region up to a free end which is a trailing end in the rotational direction, 1.3 wherein the fingers (5a-m) each comprise a left-hand end-facing area and a right-hand end-facing area, and the end-facing areas (12, 13) each exhibit an inclination (α) with respect to a central cross-sectional plane of the screening star, such that the end-facing areas (12, 13) converge in the direction of the free end of the respective finger (5a-m), and the fingers (5a-m) taper in the direction of the free end of the respective finger (5a-m) on both end-facing sides (12, 13) of the screening star, wherein that 1.4 the fingers (5a-m) taper, in circular-cylindrical sections (B-B) which are concentric with respect to the rotational axis, in a circumferential direction on at least one end-facing area (12, 13). 1.1 a hub for non-rotatably arranging the screening star on a rotatable shaft; and 1.2 elastically flexible fingers (5a-m) which protrude radially outwards from the hub in a distribution in the circumferential direction about a rotational axis of the screening star and which each extend in the circumferential direction from a base region up to a free end which is a trailing end in the rotational direction, 1.3 wherein the fingers (5a-m) each comprise a left-hand end-facing area and a right-hand end-facing area, and the end-facing areas (12, 13) each exhibit an inclination (α) with respect to a central cross-sectional plane of the screening star, such that the end-facing areas (12, 13) converge in the direction of the free end of the respective finger (5a-m), and the fingers (5a-m) taper in the direction of the free end of the respective finger (5a-m) on both end-facing sides (12, 13) of the screening star,
A delayed release drug formulation for oral administration to deliver a drug to the colon of a subject, said formulation comprising: a core and a coating for the core, the core comprising a drug and the coating comprising an outer layer and an inner layer, wherein the outer layer comprises a mixture of a first polymeric material which is susceptible to attack by colonic bacteria and a second polymeric material which has a pH threshold at pH 6 or above, and wherein the inner layer comprises a third polymeric material which is non-ionic polymer that is soluble in intestinal fluid or gastrointestinal fluid, and at least one additive selected from a buffer agent and a base.
An outboard motor comprising: an outboard motor main body; a mount that includes a fixed member to be fixed to a hull and a tilt shaft joined to the fixed member, and that is configured to attach the outboard motor main body to the hull such that the outboard motor main body is turnable around the tilt shaft; a turning mechanism that is configured to turn the outboard motor main body around the tilt shaft to incline the outboard motor main body with respect to the fixed member; an electric actuator (M1, 51) that is configured to supply a driving force to the turning mechanism; an inclination angle sensor that is configured to detect an inclination angle of the outboard motor main body with respect to the fixed member; and a controller that is configured or programmed to actuate the turning mechanism by energizing the electric actuator (M1, 51) in response to an operation switch that is operated by an operator to change the inclination angle, and perform energization limiting control (S23, S43) to limit energization of the electric actuator (M1, 51) when a magnitude of a rate of change of the inclination angle detected by the inclination angle sensor is equal to or less than a predetermined determination threshold for a predetermined duration of time. an outboard motor main body; a mount that includes a fixed member to be fixed to a hull and a tilt shaft joined to the fixed member, and that is configured to attach the outboard motor main body to the hull such that the outboard motor main body is turnable around the tilt shaft; a turning mechanism that is configured to turn the outboard motor main body around the tilt shaft to incline the outboard motor main body with respect to the fixed member; an electric actuator (M1, 51) that is configured to supply a driving force to the turning mechanism; an inclination angle sensor that is configured to detect an inclination angle of the outboard motor main body with respect to the fixed member; and a controller that is configured or programmed to actuate the turning mechanism by energizing the electric actuator (M1, 51) in response to an operation switch that is operated by an operator to change the inclination angle, and perform energization limiting control (S23, S43) to limit energization of the electric actuator (M1, 51) when a magnitude of a rate of change of the inclination angle detected by the inclination angle sensor is equal to or less than a predetermined determination threshold for a predetermined duration of time.
A pre-fusion respiratory syncytial virus F polypeptide, wherein the HRA region, residues 137-239 of reference RSV F protein of SEQ ID NO:1, contains an introduced cysteine residue and the DIII region, residues 51-98 and 206-308 of reference RSV F protein of SEQ ID NO:1, contains an introduced cysteine residue, and a disulfide bond is formed between the introduced cysteine residue in the HRA region and the introduced cysteine residue in the DIII region that stabilizes the pre-fusion RSV F polypeptide.
A compressor for moving a gas from an inlet to an outlet and providing a pressure differential between the inlet and the outlet, the compressor comprising: a rotating shaft; at least a first piston rod (75, 75A) perpendicular to said rotating shaft said first piston rod (75, 75A) connecting a first pair of pistons (55A, 55B) at opposite ends of said first piston rod (75, 75A), said piston rod (75, 75A) moving back and forth relative to said rotating shaft such that said first pair of pistons (55A, 55B) are alternately closer to and farther from said rotating shaft, and said first pair of pistons (55A, 55B) moving back and forth on the same axis; a grooved end plate perpendicular to said rotating shaft, said grooved end plate defining a groove which is off-center with respect to said rotating shaft; and at least a first bearing (65, 65A) extending from said first piston rod (75, 75A) and received in said groove such that said first bearing (65, 65A) traverses said groove when rotational motion of the shaft rotates either said first piston rod (75, 75A) or said grooved end plate, each position of the bearing (65, 65A) within the groove determining a corresponding position of said first piston rod (75, 75A) relative to said rotating shaft. a rotating shaft; at least a first piston rod (75, 75A) perpendicular to said rotating shaft said first piston rod (75, 75A) connecting a first pair of pistons (55A, 55B) at opposite ends of said first piston rod (75, 75A), said piston rod (75, 75A) moving back and forth relative to said rotating shaft such that said first pair of pistons (55A, 55B) are alternately closer to and farther from said rotating shaft, and said first pair of pistons (55A, 55B) moving back and forth on the same axis; a grooved end plate perpendicular to said rotating shaft, said grooved end plate defining a groove which is off-center with respect to said rotating shaft; and at least a first bearing (65, 65A) extending from said first piston rod (75, 75A) and received in said groove such that said first bearing (65, 65A) traverses said groove when rotational motion of the shaft rotates either said first piston rod (75, 75A) or said grooved end plate, each position of the bearing (65, 65A) within the groove determining a corresponding position of said first piston rod (75, 75A) relative to said rotating shaft.
A child-resistant aerosol cap comprising a base which is attachable onto an aerosol container, and a lid which is attachable to the base, the lid includes locking means (65, 70) for releasably locking the lid onto the base, characterised in that the base is provided with means for preventing rotation relative to the aerosol container.
A decoder configured to operate upon an input encoded sequence using a wrap around Viterbi procedure, wherein for each iteration of the wrap-around Viterbi procedure M survivor paths at M ending states are found, and for an iteration i, where i>1, M beginning states are initiated as M ending states from an iteration (i-1), the decoder being configured to output a selected path as a decode sequence, characterized in that the decoder is configured to avoid storing, for a current iteration i of the wrap-around Viterbi procedure other than a first iteration, a best path up to the iteration (i-1) wherein a best path up to a given iteration is the best path over all iterations including the given iteration, wherein a best path for a given iteration is the path with the largest path metric among the M survivor paths. wherein the decoder is configured, for the current iteration i: to determine a best path for the current iteration i and to determine and to record a best tail-biting path up to the current iteration i, wherein the output selected path is the best tail-biting path up to the current iteration i when decoding terminates and the best tail-biting path up to the current iteration i exists; the output selected path is the best path for the current iteration i when decoding terminates and the best tail-biting path up to the current iteration i does not exist.
A pressure intensifier for use in a hydraulic shield support system, wherein the pressure intensifier comprises: a housing including a low-pressure input configured to receive hydraulic fluid at a first pressure, and a high-pressure output configured to output the hydraulic fluid at an increased second pressure; an intensifier piston movably disposed in the housing and defining a low-pressure chamber and a high-pressure chamber on opposite sides of the piston, the intensifier piston being configured to increase the pressure of hydraulic fluid in the high-pressure chamber by moving into the high-pressure chamber when hydraulic fluid at the first pressure is supplied to the low-pressure chamber; a directional control valve movably disposed in the pressure intensifier, the directional control valve being movable between a first control valve position in which the low-pressure chamber is fluidly connected to the low-pressure input and a second control valve position in which the low-pressure chamber is fluidly connected to a drain; and characterized by the pressure intensifier further comprising a switching valve configured to switch the directional control valve between the first control valve position and the second control valve position, wherein the switching valve is configured to switch the directional control valve from the first control valve position to the second control valve position when the intensifier piston reaches a predetermined position in the high-pressure chamber. a housing including a low-pressure input configured to receive hydraulic fluid at a first pressure, and a high-pressure output configured to output the hydraulic fluid at an increased second pressure; an intensifier piston movably disposed in the housing and defining a low-pressure chamber and a high-pressure chamber on opposite sides of the piston, the intensifier piston being configured to increase the pressure of hydraulic fluid in the high-pressure chamber by moving into the high-pressure chamber when hydraulic fluid at the first pressure is supplied to the low-pressure chamber; a directional control valve movably disposed in the pressure intensifier, the directional control valve being movable between a first control valve position in which the low-pressure chamber is fluidly connected to the low-pressure input and a second control valve position in which the low-pressure chamber is fluidly connected to a drain; and characterized by the pressure intensifier further comprising a switching valve configured to switch the directional control valve between the first control valve position and the second control valve position, wherein the switching valve is configured to switch the directional control valve from the first control valve position to the second control valve position when the intensifier piston reaches a predetermined position in the high-pressure chamber.