mhurhangee/ep-ind-claims huggingface dataset:
A vacuum trap, comprising: a vacuum chamber; a conduit having at least one first opening open to atmosphere and a second opening connected to the vacuum chamber; a valve connecting the conduit to the vacuum chamber and sealing the vacuum chamber; a vacuum source that maintains a vacuum inside the vacuum chamber immediately prior to the valve opening, the vacuum being sufficient to draw a vermin through said at least one first opening of the conduit; and a detector that detects the presence of vermin, the valve opening in response to a signal from the detector when vermin are detected; characterized in that: the at least one first opening is positioned within an enclosed vermin run; the enclosed vermin run is defined by a channel having a first vermin run opening at a first end and a second vermin run opening at a second end, the first vermin run opening being aligned with the second vermin run opening along the enclosed vermin run, the at least one first opening being disposed within the channel between the first vermin run opening and the second vermin run opening; and the detector detects the presence of vermin within the enclosed vermin run. a vacuum chamber; a conduit having at least one first opening open to atmosphere and a second opening connected to the vacuum chamber; a valve connecting the conduit to the vacuum chamber and sealing the vacuum chamber; a vacuum source that maintains a vacuum inside the vacuum chamber immediately prior to the valve opening, the vacuum being sufficient to draw a vermin through said at least one first opening of the conduit; and a detector that detects the presence of vermin, the valve opening in response to a signal from the detector when vermin are detected; characterized in that: the at least one first opening is positioned within an enclosed vermin run; the enclosed vermin run is defined by a channel having a first vermin run opening at a first end and a second vermin run opening at a second end, the first vermin run opening being aligned with the second vermin run opening along the enclosed vermin run, the at least one first opening being disposed within the channel between the first vermin run opening and the second vermin run opening; and the detector detects the presence of vermin within the enclosed vermin run. the at least one first opening is positioned within an enclosed vermin run; the enclosed vermin run is defined by a channel having a first vermin run opening at a first end and a second vermin run opening at a second end, the first vermin run opening being aligned with the second vermin run opening along the enclosed vermin run, the at least one first opening being disposed within the channel between the first vermin run opening and the second vermin run opening; and the detector detects the presence of vermin within the enclosed vermin run.
Greenhouse comprising wall and ceiling regions (2, 3) which at least partially enclose an interior that extends along a longitudinal axis, wherein a receiving region for receiving sunlight is formed in the ceiling region and extends in the direction of the longitudinal axis, space for plants is provided in the interior at least on one side of the longitudinal axis, a guide region for introducing the sunlight into the interior adjoins the receiving region towards the interior, wherein a reflective light-deflecting device extends in the interior substantially in the direction of the longitudinal axis, the light-deflecting device comprises light-reflecting sub-regions (10, 11), and the surface normals to the surfaces of said sub-regions are oriented in predefined directions such that light entering through the guide region is at least partially reflected by sub-regions such that it is directed away from the light-deflecting device, transversely with respect to the longitudinal axis, towards the at least one space for plants that is provided in the interior, characterized in that the light-deflecting device comprises two deflecting surfaces which face away from one another and which extend over most of the height of the greenhouse, said deflecting surfaces being located close to one another at the upper ends thereof facing towards the receiving region and the guide region and being at an increasing distance from one another towards the bottom, wherein the deflecting surfaces comprise, alternating in intersections with vertical transverse planes extending perpendicular to the longitudinal axis, sub-regions (10, 11) having lines of intersection in a first and a second orientation, and sub-regions having the first orientation reflect light coming from above towards the space for plants and sub-regions having the second orientation reflect light coming from below towards the space for plants.
Manually operated cutting machine, in particular sawing machine, with a drive assembly having a tool holder for a disc-type cutting tool, in particular a saw blade, and a drive motor for the rotary drive of the tool holder, and with a guide device, which can be guided along a ground with a guide surface and at which the drive assembly is mounted for pivoting, by means of a depth adjustment bearing, about a depth adjustment axis between an upper and a lower cutting depth position (SU, SO), wherein the tool holder is closer to the guide surface in the lower cutting depth position than in the upper lower cutting depth position, so that the cutting tool projects farther in front of the guide surface than in the upper lower cutting depth position, wherein the manually operated cutting machine has, for adjusting the respective cutting depth position (SU, SO), a depth adjustment device with a guide depth adjustment element connected to the guide device and with a drive depth adjustment element connected to the drive assembly, which is adjusted relative to the guide depth adjustment element when adjusting the cutting depth position (SU, SO), and with an adjustment body providing at least one adjustment functionality, wherein the adjustment body is mounted movably with respect to the guide depth adjustment element and the drive depth adjustment element and can be releasably attached to the drive depth adjustment element by means of a drive fastening device and to the guide depth adjustment element by means of a guide fastening device, wherein the drive fastening device has a holding element spring-loaded towards a holding position for holding the adjustment body, characterised in that the guide fastening device has a holding element spring-loaded towards a holding position holding the adjustment body for holding the adjustment body.
A mount device for an outboard motor having an outboard motor body generating a thrust by rotating a propeller that is driven by an engine mounted to the outboard motor and an attachment device configured to attach the outboard motor body to a hull, the mount device including an upper mount and a lower mount arranged between the outboard motor body and the attachment device for attaching the outboard motor body to the hull and configured to support an upper portion and a lower portion of the outboard motor body, respectively, wherein the mount device further comprises an anti-vibration unit and a displacement restriction unit, the anti-vibration unit has an anti-vibration mount section that prevents vibration of the engine during low-speed rotation of the engine from being transmitted to the hull, the displacement restriction unit includes a forward-movement side displacement restricting mount section that restricts displacement of the outboard motor body during high-speed rotation of the engine and during forward movement of the hull, a backward-movement side displacement restricting mount section that restricts displacement of the outboard motor body during backward movement of the hull, and a lateral displacement restricting mount section (54, 55) that restricts displacement in a lateral direction including a rolling direction and a yaw direction of the outboard motor body, and wherein the lateral displacement restricting mount section (54, 55) and a member opposing to the lateral displacement restricting mount section (54, 55) abut against each other at abutment surfaces thereof, characterised in that the abutment surfaces are inclined with respect to a longitudinal direction of the outboard motor body.
An underwater personal submersible, comprising: a main body, said main body comprising a forward observation chamber; a first forward side support assembly on one side of the main body; a second forward side support assembly on an opposite side of the main body; and a rear support; said first forward support and said second forward support defining an open viewing space between one another from a front of said forward observation chamber and said submersible defining a user compartment configured to receive a user oriented in a semi-prone position, so that the viewing space is positioned between the arms of the user, wherein the first forward side support assembly comprises a left wing and a left support member, and the second forward side support assembly comprises a right wing and a right support member. a main body, said main body comprising a forward observation chamber; a first forward side support assembly on one side of the main body; a second forward side support assembly on an opposite side of the main body; and a rear support; said first forward support and said second forward support defining an open viewing space between one another from a front of said forward observation chamber and said submersible defining a user compartment configured to receive a user oriented in a semi-prone position, so that the viewing space is positioned between the arms of the user, wherein the first forward side support assembly comprises a left wing and a left support member, and the second forward side support assembly comprises a right wing and a right support member.
An identification document having a substrate and having a security feature that is perceptible as an optical marking at least from one side of the substrate, the marking comprising at least one black fraction and at least one colored fraction (22, 24, 26, 28), the black fraction being visible at least when illuminated with light having a normal spectral distribution, and the colored fraction (22, 24, 26, 28) being formed by a color that can be excited to shine under UV light and that is visible substantially only when illuminated with UV light, the black fraction being formed by an integrated engraving in the substrate, characterized in that the black fraction and the colored fraction (22, 24, 26, 28) are formed to be in register with each other and together forming, under illumination with UV light, a orthochromatic image, namely a color photograph of a person.
A combustor assembly for a turbine engine, the combustor assembly comprising: a combustor liner; a flow sleeve surrounding the combustor liner; a first flow annulus defined radially between the combustor liner and the flow sleeve; a transition duct connected to the combustor liner; an impingement sleeve connected to the flow sleeve and radially surrounding the transition duct; a second flow annulus defined radially between the transition duct and the impingement sleeve; a plurality of rows of cooling holes (24A-D) formed in the flow sleeve; a plenum ring radially surrounding the combustor liner in the first flow annulus; and characterised in that the plenum ring comprises a plurality of axial flow passages for directing axial air flow and radial flow passages for directing radial air flow; a first flow hole formed in each radial flow passage, wherein the first flow holes are aligned with a first row of cooling holes in the flow sleeve; axial flow blockers (58A,B) attached to each radial flow passage so that axial air cannot enter radial flow passages, and wherein the plenum ring is positioned in the first flow annulus adjacent to the transition duct so that the axial flow passages direct air from the second flow annulus to the first flow annulus, and the radial flow passages direct radial air onto the combustor liner. a combustor liner; a flow sleeve surrounding the combustor liner; a first flow annulus defined radially between the combustor liner and the flow sleeve; a transition duct connected to the combustor liner; an impingement sleeve connected to the flow sleeve and radially surrounding the transition duct; a second flow annulus defined radially between the transition duct and the impingement sleeve; a plurality of rows of cooling holes (24A-D) formed in the flow sleeve; a plenum ring radially surrounding the combustor liner in the first flow annulus; and characterised in that the plenum ring comprises a plurality of axial flow passages for directing axial air flow and radial flow passages for directing radial air flow; a first flow hole formed in each radial flow passage, wherein the first flow holes are aligned with a first row of cooling holes in the flow sleeve; axial flow blockers (58A,B) attached to each radial flow passage so that axial air cannot enter radial flow passages, and wherein the plenum ring is positioned in the first flow annulus adjacent to the transition duct so that the axial flow passages direct air from the second flow annulus to the first flow annulus, and the radial flow passages direct radial air onto the combustor liner.
A gas turbine engine assembly, the assembly comprising a first segment comprising ceramic-matrix composite materials, the first segment having a first and a second end face (38, 40), a second segment comprising ceramic-matrix composite materials, the second segment having a first and a second end face (38, 40), and a joint that couples the first segment to the second segment, the joint including a first biscuit that extends into the first segment along the second end face of the first segment and into the second segment along the first end face of the second segment, wherein the joint includes braze material between the first biscuit and the first segment and between the first biscuit and the second segment, and substantially all of the first biscuit is received in the first segment and the second segment. a first segment comprising ceramic-matrix composite materials, the first segment having a first and a second end face (38, 40), a second segment comprising ceramic-matrix composite materials, the second segment having a first and a second end face (38, 40), and a joint that couples the first segment to the second segment, the joint including a first biscuit that extends into the first segment along the second end face of the first segment and into the second segment along the first end face of the second segment, wherein the joint includes braze material between the first biscuit and the first segment and between the first biscuit and the second segment, and substantially all of the first biscuit is received in the first segment and the second segment.
A connecting device for connecting therebetween the respective ends of two ducts comprising: • a first and a second connecting member (2, 4), apt to cooperate mechanically therebetween in axial sliding, each one comprising a respective first and second section (3, 5) for the connection to first and second ends of two ducts; • a first and a second tubular terminal (12, 27), formed in the respective first and second connecting member (2, 4), hydraulically connected to said first and second connecting member (3, 5), each one equipped with a corresponding first and second ending circular edge (13, 28) with pre-fixed diameter defining respective first and second connecting openings (14, 29), the second connecting opening being sealed by a breakable barrier connected to the second ending circular edge; and • a first tubular casing concentric to said first tubular terminal, equipped with a third ending circular edge defining a third connecting opening sealed by an additional breakable barrier connected to the third ending circular edge, wherein the second tubular terminal has a smaller diameter than that of said first tubular casing, being apt to penetrate through said third connecting opening consequently to said axial sliding, causing the rupture of said additional breakable barrier and sliding sealingly inside said first tubular casing; and wherein the first tubular terminal is moved back with respect to the third ending circular edge of the first tubular casing, having a smaller diameter than that of said second tubular terminal and being apt to penetrate through said second connecting opening consequently to said axial sliding, causing the rupture of the respective breakable barrier and sliding sealingly inside said second tubular terminal and, wherein at least one of said first and second connecting member (2, 4) comprises a sliding guide, characterized in that said sliding guide comprises at least a groove formed on a surface of an outer cylindrical casing of a connecting member, apt to cooperate with a corresponding rib or with one or more teeth implemented at an inner surface of an outer cylindrical casing of the other connecting member. • a first and a second connecting member (2, 4), apt to cooperate mechanically therebetween in axial sliding, each one comprising a respective first and second section (3, 5) for the connection to first and second ends of two ducts; • a first and a second tubular terminal (12, 27), formed in the respective first and second connecting member (2, 4), hydraulically connected to said first and second connecting member (3, 5), each one equipped with a corresponding first and second ending circular edge (13, 28) with pre-fixed diameter defining respective first and second connecting openings (14, 29), the second connecting opening being sealed by a breakable barrier connected to the second ending circular edge; and • a first tubular casing concentric to said first tubular terminal, equipped with a third ending circular edge defining a third connecting opening sealed by an additional breakable barrier connected to the third ending circular edge,
A method for receiving a control channel, comprising: obtaining, by a user equipment resource elements, REs, included in a control channel element, E-CCE, where the REs included in the E-CCE are determined according to a system configuration and user configuration; and receiving, by the user equipment over the REs comprised in the E-CCE, an extended physical downlink control channel, E-PDCCH, transmitted by a base station; wherein the obtaining REs comprised in a E-CCE, comprises: obtaining, by the user equipment according to REs comprised in a resource set and REs of predetermined overheads in the resource set, the REs comprised in the E-CCE, the predetermined overheads comprise a pilot overhead and at least one of overheads of channels other than an E-PDCCH and a PDCCH, the pilot overhead comprises at least one of a channel state information-reference signal, CSI-RS, a cell-specific reference signal, CRS, a demodulation reference signal, DMRS, and a muted RE, and the overheads of other channels comprise a paging channel or a synchronization channel. obtaining, by a user equipment resource elements, REs, included in a control channel element, E-CCE, where the REs included in the E-CCE are determined according to a system configuration and user configuration; and receiving, by the user equipment over the REs comprised in the E-CCE, an extended physical downlink control channel, E-PDCCH, transmitted by a base station; wherein the obtaining REs comprised in a E-CCE, comprises: obtaining, by the user equipment according to REs comprised in a resource set and REs of predetermined overheads in the resource set, the REs comprised in the E-CCE, the predetermined overheads comprise a pilot overhead and at least one of overheads of channels other than an E-PDCCH and a PDCCH, the pilot overhead comprises at least one of a channel state information-reference signal, CSI-RS, a cell-specific reference signal, CRS, a demodulation reference signal, DMRS, and a muted RE, and the overheads of other channels comprise a paging channel or a synchronization channel.
A liquid jet head configured to be installed in a carriage of a liquid jet recording device, the liquid jet head comprising: a jet section provided with a nozzle hole configured to jet liquid; a support member configured to support the jet section, and provided with a hole part including a through hole (Hb) penetrating in a jet direction of the liquid and a bottomed hole (Ha) in the jet direction, wherein the through hole communicates with the bottomed hole; a biasing member disposed in the bottomed hole of the hole part, and configured to bias the support member with respect to the carriage; a position adjustment member which is configured to be located at a predetermined position with respect to the carriage, and is biased in the hole part by the biasing member to thereby set a position of the nozzle hole with respect to the carriage, wherein the biasing member is configured to bias the position adjustment member with respect to the support member; and a reference surface which is disposed inside the bottomed hole of the hole part, and with which the position adjustment member is made to have contact, wherein the position adjustment member is configured to adjust the position of the nozzle hole with respect to the carriage, and wherein the position adjustment member is an eccentric cam including an eccentric part including a part having contact with the reference surface, and a first shaft part configured to be pivotally supported by a shaft hole provided to the carriage. a jet section provided with a nozzle hole configured to jet liquid; a support member configured to support the jet section, and provided with a hole part including a through hole (Hb) penetrating in a jet direction of the liquid and a bottomed hole (Ha) in the jet direction, wherein the through hole communicates with the bottomed hole; a biasing member disposed in the bottomed hole of the hole part, and configured to bias the support member with respect to the carriage; a position adjustment member which is configured to be located at a predetermined position with respect to the carriage, and is biased in the hole part by the biasing member to thereby set a position of the nozzle hole with respect to the carriage, wherein the biasing member is configured to bias the position adjustment member with respect to the support member; and a reference surface which is disposed inside the bottomed hole of the hole part, and with which the position adjustment member is made to have contact, wherein the position adjustment member is configured to adjust the position of the nozzle hole with respect to the carriage, and wherein the position adjustment member is an eccentric cam including an eccentric part including a part having contact with the reference surface, and a first shaft part configured to be pivotally supported by a shaft hole provided to the carriage.
Hydrocarbon-absorbent film consisting of an arrangement of natural non-woven fibers forming a longitudinal plane, said arrangement comprising hair and woolly fibers mixed and assembled in a non-woven consolidated arrangement, the woolly fibers constituting a mass ratio greater than 20% of all the fibers, and more preferably a mass ratio greater than 30% of all the fibers, and even more preferably a mass ratio greater than 40% of all the fibers in the film.