mhurhangee/ep-ind-claims huggingface dataset:
Preformed contact member (300, 400) for use with an insulation-piercing connector, wherein said insulation-piercing connector comprises one or more electrically conductive insulation-piercing means (105a, 108a, 105b, 108b) configured for piercing an insulation layer (110, 113) of at least one insulated electrical conductor (109, 112) arranged therein, wherein the preformed contact member (300, 400) is electrically conductive and is configured for being provided on a respective electrically conductive insulation-piercing means (105a, 108a, 105b, 108b) of said one or more electrically conductive insulation-piercing means (105a, 108a, 105b, 108b), whereby an electrical contact can be established between said respective electrically conductive insulation-piercing means (105a, 108a, 105b, 108b) and a bare electrical conductor arranged in the insulation-piercing connector while preventing direct contact therebetween.
A piezoelectric fan (100, 200, 500, 600, 700) comprising: an air blower having a free end and a fixed end (110b; and a planar piezoelectric element fixed to the air blower, the piezoelectric element being configured to cause vibration of the free end of the air blower, the air blower comprising: a vibration plate to which the piezoelectric element is fixed; one side plate disposed on one longitudinal edge of the vibration plate and another side plate disposed on the other longitudinal edge of the vibration plate, wherein the piezoelectric fan is characterised in that the free end of the air blower is H-shaped. an air blower having a free end and a fixed end (110b; and a planar piezoelectric element fixed to the air blower, the piezoelectric element being configured to cause vibration of the free end of the air blower, the air blower comprising: a vibration plate to which the piezoelectric element is fixed; one side plate disposed on one longitudinal edge of the vibration plate and another side plate disposed on the other longitudinal edge of the vibration plate, wherein the piezoelectric fan is characterised in that the free end of the air blower is H-shaped. a vibration plate to which the piezoelectric element is fixed; one side plate disposed on one longitudinal edge of the vibration plate and another side plate disposed on the other longitudinal edge of the vibration plate, wherein the piezoelectric fan is characterised in that the free end of the air blower is H-shaped.
Washing apparatus, in particular for heat-disinfection, comprising a plurality of washer machines (11, 12, 13, 14, 15), which are positioned aligned along an axis of alignment, and a movement device able to move at least an object-bearing container parallel to said axis of alignment, wherein said movement device is provided with: - a trolley able to transport said container and provided with sliding means (22a, 22b) guided by a guide element which extends parallel to said axis of alignment; - movement means able to move said trolley parallel to said guide element; - a frame, disposed along said axis of alignment characterized in that said frame comprises at least a first pillar disposed at a first lateral end of said plurality of washer machines (11, 12, 13, 14, 15), a second pillar disposed at a second lateral end of said plurality of washer machines (11, 12, 13, 14, 15) and a plurality of intermediate pillars disposed distanced from each other, according to the sizes of the washer machines (11, 12, 13, 14, 15), and interspersed with the latter so as to define a plurality of housing zones in which said washer machines (11, 12, 13, 14, 15) are able to be positioned, and in that said frame further comprises a horizontal bar extending parallel to said axis of alignment and able to support and position, at least partly, said movement means. - a trolley able to transport said container and provided with sliding means (22a, 22b) guided by a guide element which extends parallel to said axis of alignment; - movement means able to move said trolley parallel to said guide element; - a frame, disposed along said axis of alignment characterized in that said frame comprises at least a first pillar disposed at a first lateral end of said plurality of washer machines (11, 12, 13, 14, 15), a second pillar disposed at a second lateral end of said plurality of washer machines (11, 12, 13, 14, 15) and a plurality of intermediate pillars disposed distanced from each other, according to the sizes of the washer machines (11, 12, 13, 14, 15), and interspersed with the latter so as to define a plurality of housing zones in which said washer machines (11, 12, 13, 14, 15) are able to be positioned, and in that said frame further comprises a horizontal bar extending parallel to said axis of alignment and able to support and position, at least partly, said movement means.
An industrial truck including: - a frame (11, 14), - a lifting assembly including a movable lifting element for lifting a load, - at least an electrical motor for the traction of wheels of the industrial truck, and - an axle structure connected to the frame of the truck by means of flanges and constituted by a left portion, a right portion and a housing (31, 32, 33) of the electrical motor, the housing (31, 32, 33) being interposed between the left portion and the right portion, the housing (31, 32, 33) being joined to each of the left portion and the right portion, wherein each of the left portion and the right portion comprises supporting means for supporting the lifting assembly, and the housing of the electrical motor is configured to withstand a bending stress induced in the housing by the weight of the lifting assembly, characterized in that the housing includes an outer surface on which a power electronic module for controlling the electric motor is mounted, wherein a circumferential portion of the housing surrounding the electrical motor around a motor axis includes one or more cooling ducts only in a region between a recess of the housing configured to accommodate the electric motor and the outer surface for cooling the power electronic module during the operation of the industrial truck, and wherein a gap between a stator and a rotor of the electrical motor forms a cooling path for the circulation of cooling liquid to refrigerate the electrical motor. - a frame (11, 14), - a lifting assembly including a movable lifting element for lifting a load, - at least an electrical motor for the traction of wheels of the industrial truck, and - an axle structure connected to the frame of the truck by means of flanges and constituted by a left portion, a right portion and a housing (31, 32, 33) of the electrical motor, the housing (31, 32, 33) being interposed between the left portion and the right portion, the housing (31, 32, 33) being joined to each of the left portion and the right portion, wherein each of the left portion and the right portion comprises supporting means for supporting the lifting assembly, and the housing of the electrical motor is configured to withstand a bending stress induced in the housing by the weight of the lifting assembly, the housing includes an outer surface on which a power electronic module for controlling the electric motor is mounted, wherein a circumferential portion of the housing surrounding the electrical motor around a motor axis includes one or more cooling ducts only in a region between a recess of the housing configured to accommodate the electric motor and the outer surface for cooling the power electronic module during the operation of the industrial truck, and wherein a gap between a stator and a rotor of the electrical motor forms a cooling path for the circulation of cooling liquid to refrigerate the electrical motor.
A system for wirelessly providing power and data to a remote device, the system comprising: a source apparatus comprising: a light source for generating a modulated collimated beam; a steerable optical element; and a wireless uplink receiver; and a remote device comprising: a receiver for receiving modulated light from the modulated collimated beam and converting the modulated light into an electrical power component and a signal component; a processing unit for processing a signal component of the modulated light; a power conditioning unit for conditioning electrical energy from the power component for powering the device; characterized in that the system further comprises: an illumination detector for determining an illumination of the optical signal reaching the receiver for the purpose of aligning the collimated beam; and an uplink channel in communication with the wireless uplink receiver to relay feedback data related to collimated beam alignment to position the steerable optical element. a source apparatus comprising: a light source for generating a modulated collimated beam; a steerable optical element; and a wireless uplink receiver; and a light source for generating a modulated collimated beam; a steerable optical element; and a wireless uplink receiver; and a remote device comprising: a receiver for receiving modulated light from the modulated collimated beam and converting the modulated light into an electrical power component and a signal component; a processing unit for processing a signal component of the modulated light; a power conditioning unit for conditioning electrical energy from the power component for powering the device; a receiver for receiving modulated light from the modulated collimated beam and converting the modulated light into an electrical power component and a signal component; a processing unit for processing a signal component of the modulated light; a power conditioning unit for conditioning electrical energy from the power component for powering the device; characterized in that the system further comprises: an illumination detector for determining an illumination of the optical signal reaching the receiver for the purpose of aligning the collimated beam; and an uplink channel in communication with the wireless uplink receiver to relay feedback data related to collimated beam alignment to position the steerable optical element. an illumination detector for determining an illumination of the optical signal reaching the receiver for the purpose of aligning the collimated beam; and an uplink channel in communication with the wireless uplink receiver to relay feedback data related to collimated beam alignment to position the steerable optical element.
Electrochemical cell comprising: a bipolar plate; an annular support next to the bipolar plate a first electrode separated from the bipolar plate defining a first half-cell together with the bipolar plate and the annular support; a membrane next to the first electrode; a second electrode next to the membrane; the cell being characterized in that it further comprises a closure element together with the second electrode defining a second half-cell (10"); wherein the closure element is housed within the annular support and the closure element which is not a structural element mechanically supporting the pressure of the cell including: at least one inlet conduit for delivering an ion conductive liquid to one of the half-cells (10' or 10"); and, at least one collection conduit for collecting the reaction products which are produced in one of the half-cells (10' or 10"). a bipolar plate; an annular support next to the bipolar plate a first electrode separated from the bipolar plate defining a first half-cell together with the bipolar plate and the annular support; a membrane next to the first electrode; a second electrode next to the membrane; the cell being characterized in that it further comprises a closure element together with the second electrode defining a second half-cell (10"); wherein the closure element is housed within the annular support and at least one inlet conduit for delivering an ion conductive liquid to one of the half-cells (10' or 10"); and, at least one collection conduit for collecting the reaction products which are produced in one of the half-cells (10' or 10").
A track maintenance machine for stabilizing a ballast bed of a track after a tamping operation, including a machine frame mobile on on-track undercarriages and a stabilizing unit which has rollers for gripping a track grid and a vibration generator for actuating the track grid with a vibration, characterized in that, in front of the stabilizing unit with regard to a working direction, a clearing device is arranged at both longitudinal sides of the track maintenance machine, and that the respective clearing device comprises a clearing tool, lowerable into the ballast bed, to remove ballast from a respective sleeper-end region by creation of furrows which extend parallel to the track axis and expose the sleeper end surfaces.
A surgical device, comprising: a housing; and an end effector assembly operably coupled to the housing, the end effector assembly including: first and second jaw members (110, 120) each having a tissue contacting surface, at least one of the first and second jaw members (110, 120) movable between a first, spaced-apart position and a second proximate position; a sample arm optical assembly of an interferometer coupled to the first jaw member, the sample arm optical assembly configured to transmit a first light beam to tissue grasped between the first and second jaw members (110, 120) and to receive at least a portion of the first light beam reflected from the tissue; a reference mirror of the interferometer coupled to the second jaw member; and a reference arm optical assembly of the interferometer coupled to the second jaw member, the reference arm optical assembly configured to transmit a second light beam to the reference mirror and to receive at least a portion of the second light beam reflected from the reference mirror. a housing; and an end effector assembly operably coupled to the housing, the end effector assembly including: first and second jaw members (110, 120) each having a tissue contacting surface, at least one of the first and second jaw members (110, 120) movable between a first, spaced-apart position and a second proximate position; a sample arm optical assembly of an interferometer coupled to the first jaw member, the sample arm optical assembly configured to transmit a first light beam to tissue grasped between the first and second jaw members (110, 120) and to receive at least a portion of the first light beam reflected from the tissue; a reference mirror of the interferometer coupled to the second jaw member; and a reference arm optical assembly of the interferometer coupled to the second jaw member, the reference arm optical assembly configured to transmit a second light beam to the reference mirror and to receive at least a portion of the second light beam reflected from the reference mirror. first and second jaw members (110, 120) each having a tissue contacting surface, at least one of the first and second jaw members (110, 120) movable between a first, spaced-apart position and a second proximate position; a sample arm optical assembly of an interferometer coupled to the first jaw member, the sample arm optical assembly configured to transmit a first light beam to tissue grasped between the first and second jaw members (110, 120) and to receive at least a portion of the first light beam reflected from the tissue; a reference mirror of the interferometer coupled to the second jaw member; and a reference arm optical assembly of the interferometer coupled to the second jaw member, the reference arm optical assembly configured to transmit a second light beam to the reference mirror and to receive at least a portion of the second light beam reflected from the reference mirror.
Wave-generating apparatus, for generating waves in an aquatic environment, comprising - an open floor with a depth that is substantially uniform in relation to the surface of the aquatic environment, - at least one substantially elongated wave-generating profile, where the ratio between the height of the profile and the depth of the floor is between 1/2 and 3, - a drive mechanism that causes the profile to move in relation to said floor in a substantially horizontal direction of displacement, - the profile forms an angle other than 90° with the direction of displacement, and characterised in that - the elongated profile is arranged on the floor and adjacent to the floor so that, when the profile moves in relation to said floor, the profile pushes the water in front of the profile upwards, from the floor and to the surface, and substantially no water passes beneath the profile, with a wave thus being formed on the profile. - an open floor with a depth that is substantially uniform in relation to the surface of the aquatic environment, - at least one substantially elongated wave-generating profile, where the ratio between the height of the profile and the depth of the floor is between 1/2 and 3, - a drive mechanism that causes the profile to move in relation to said floor in a substantially horizontal direction of displacement, - the profile forms an angle other than 90° with the direction of displacement, and characterised in that - the elongated profile is arranged on the floor and adjacent to the floor so that, when the profile moves in relation to said floor, the profile pushes the water in front of the profile upwards, from the floor and to the surface, and substantially no water passes beneath the profile, with a wave thus being formed on the profile.
An image forming apparatus comprising: a first metal side plate frame; a second metal side plate frame arranged to face the first metal side plate frame; a sheet-metal stay electrically connecting the first metal side plate frame and the second metal side plate frame; a base portion (4a1) provided at the sheet-metal stay and extending horizontally; an abutting portion rising from the base portion (4a1) and abutting each of an outer surface of the first metal side plate frame and an outer surface of the second metal side plate frame; a resin member arranged between the first metal side plate frame and the second metal side plate frame; a flange portion (3a1, 3b1) formed at an edge of each of the first metal side plate frame and the second metal side plate frame and erected from each of the outer surface of the first metal side plate frame and the outer surface of the second metal side plate frame; and a through hole (3a3) provided in the flange portion (3a1, 3b1), wherein the abutting portion abuts each of the outer surface of the first metal side plate frame and the outer surface of the second metal side plate frame through the through hole (3a3), the abutting portion is provided with a fastening portion (4a2) that is fastened to the resin member and each of the first metal side plate frame and the second metal side plate frame by use of a fastening member, and any one of the first metal side plate frame and the second metal side plate frame is directly grounded to an inlet. a first metal side plate frame; a second metal side plate frame arranged to face the first metal side plate frame; a sheet-metal stay electrically connecting the first metal side plate frame and the second metal side plate frame; a base portion (4a1) provided at the sheet-metal stay and extending horizontally; an abutting portion rising from the base portion (4a1) and abutting each of an outer surface of the first metal side plate frame and an outer surface of the second metal side plate frame; a resin member arranged between the first metal side plate frame and the second metal side plate frame; a flange portion (3a1, 3b1) formed at an edge of each of the first metal side plate frame and the second metal side plate frame and erected from each of the outer surface of the first metal side plate frame and the outer surface of the second metal side plate frame; and a through hole (3a3) provided in the flange portion (3a1, 3b1), wherein the abutting portion abuts each of the outer surface of the first metal side plate frame and the outer surface of the second metal side plate frame through the through hole (3a3), the abutting portion is provided with a fastening portion (4a2) that is fastened to the resin member and each of the first metal side plate frame and the second metal side plate frame by use of a fastening member, and any one of the first metal side plate frame and the second metal side plate frame is directly grounded to an inlet.
A process for bonding a first member to a second member comprising: placing an uncured adhesive on a first member mating surface of the first member; supporting the first member and the second member in a spaced relationship; contacting a second member mating surface of the second member with the uncured adhesive located on the first member mating surface of the first member; conveying pressurized air through a manifold into contact with the first member via plurality of apertures having hole diameter of 0.8 - 2.5 mm spaced apart at an average distance of from 10 to 30 mm along said manifold; impinging the pressurized air in a flow pattern with a Reynolds number (Re) of greater than 2120 at a temperature of between 150 and 315°C at an air pressure between 3.5 kPa (0.5 psi) and 69 kPa (10 psi) over ambient pressure onto the outer surfaces of the first member or heating the adhesive, and thereafter, blowing the pressurized air that is below the temperature while the first member and the second member are supported in the spaced relationship; curing the uncured adhesive in 60 to 90 seconds at bond line thicknesses of 1.5 to 3.0 mm and free of any bond-line read-out visible to an unaided normal human eye. placing an uncured adhesive on a first member mating surface of the first member; supporting the first member and the second member in a spaced relationship; contacting a second member mating surface of the second member with the uncured adhesive located on the first member mating surface of the first member; conveying pressurized air through a manifold into contact with the first member via plurality of apertures having hole diameter of 0.8 - 2.5 mm spaced apart at an average distance of from 10 to 30 mm along said manifold; impinging the pressurized air in a flow pattern with a Reynolds number (Re) of greater than 2120 at a temperature of between 150 and 315°C at an air pressure between 3.5 kPa (0.5 psi) and 69 kPa (10 psi) over ambient pressure onto the outer surfaces of the first member or heating the adhesive, and thereafter, blowing the pressurized air that is below the temperature while the first member and the second member are supported in the spaced relationship; curing the uncured adhesive in 60 to 90 seconds at bond line thicknesses of 1.5 to 3.0 mm and free of any bond-line read-out visible to an unaided normal human eye.