mhurhangee/patent-ind-claim-en huggingface dataset:
Method for producing an EMC shielding housing for a set of electronics , comprising the steps of: placing the electronics in a moulding tool , placing an EMC-active woven fabric in the form of a prepreg , i.e. a woven fabric impregnated with a plastics material, in the moulding tool in such a way that the EMC-active woven fabric encloses the electronics at a distance therefrom; injecting a plastics component to form a potting compound for encapsulating the electronics into the moulding tool , wherein the plastics component for the potting compound at least partially penetrates the EMC-active woven fabric ; injecting a first plastics component to form a plastic moulded part of the EMC shielding housing adjacent to the EMC-active woven fabric and the plastics component for the potting compound into the moulding tool ; and injecting a second plastics component for the plastic moulded part of the EMC shielding housing adjacent to the first plastics component for the plastic moulded part of the EMC shielding housing into the moulding tool . placing the electronics in a moulding tool , placing an EMC-active woven fabric in the form of a prepreg , i.e. a woven fabric impregnated with a plastics material, in the moulding tool in such a way that the EMC-active woven fabric encloses the electronics at a distance therefrom; injecting a plastics component to form a potting compound for encapsulating the electronics into the moulding tool , wherein the plastics component for the potting compound at least partially penetrates the EMC-active woven fabric ; injecting a first plastics component to form a plastic moulded part of the EMC shielding housing adjacent to the EMC-active woven fabric and the plastics component for the potting compound into the moulding tool ; and injecting a second plastics component for the plastic moulded part of the EMC shielding housing adjacent to the first plastics component for the plastic moulded part of the EMC shielding housing into the moulding tool .
A shaping material comprising a crystalline alicyclic structure-containing resin, wherein the crystalline alicyclic structure-containing resin has a melting point of 200°C or higher, as determined by the method defined in the description, and the content of chlorobenzene-soluble components in the shaping material is 1,000 ppm or less as an o-dichlorobenzene-equivalent value based on gas chromatography analysis with o-dichlorobenzene as a standard substance. the crystalline alicyclic structure-containing resin has a melting point of 200°C or higher, as determined by the method defined in the description, and the content of chlorobenzene-soluble components in the shaping material is 1,000 ppm or less as an o-dichlorobenzene-equivalent value based on gas chromatography analysis with o-dichlorobenzene as a standard substance.
A protective jacket for a portable computing device , the protective jacket comprising: a connector cover movably attached to the protective jacket via two flexible straps, the connector cover comprising: an inner portion adapted to seal a plurality of connectors (118a-118c) of the device when the connector cover is in a closed position, wherein the connector cover includes a hook adapted to couple the connector cover to the protective jacket for the computing device; one of the two flexible straps being located on a left side of the inner potion and another of the two flexible straps being located on a right side of the inner portion ; a restraining member located on each of the two flexible straps adapted to prevent detachment of the connector cover from the jacket; and a magnetic outer portion adapted to magnetically couple to magnetic members disposed within a surface on a display side of the protective jacket when the connector cover is in an open position. an inner portion adapted to seal a plurality of connectors (118a-118c) of the device when the connector cover is in a closed position, wherein the connector cover includes a hook adapted to couple the connector cover to the protective jacket for the computing device; one of the two flexible straps being located on a left side of the inner potion and another of the two flexible straps being located on a right side of the inner portion ; a restraining member located on each of the two flexible straps adapted to prevent detachment of the connector cover from the jacket; and a magnetic outer portion adapted to magnetically couple to magnetic members disposed within a surface on a display side of the protective jacket when the connector cover is in an open position.
An active aerodynamic application torque link system comprising: a four bar linkage having a fixed link with a follower link and driven link rotatably connected, a coupler rotatably connected to the follower link and the driven link ; a torque transfer tube having a four sided polygon cross sectional shape; wherein the driven link has a drive bore with an opposing first drive aperture and a second drive aperture that receive the torque transfer tube , within the drive bore , the first drive aperture and the second drive aperture are a plurality of drive zones separated by one of a plurality of drive relief zones , wherein each one of the plurality of drive zones creates a torsional non-sliding interference fit between the torque transfer tube and the drive bore of the driven link and at least one of the plurality of drive relief zones creates a neutral fit between the torque transfer tube and the drive bore , wherein the plurality of drive zones and the plurality of drive relief zones reduce the spacing tolerances and eliminate lag between the driven link and the torque transfer tube , when the torque transfer tube rotates; and an actuator (12; 112; 212) rotatably connected to the torque transfer tube for rotating the torque transfer tube thereby transferring torque to the four bar linkage through the driven link . a four bar linkage having a fixed link with a follower link and driven link rotatably connected, a coupler rotatably connected to the follower link and the driven link ; a torque transfer tube having a four sided polygon cross sectional shape; wherein the driven link has a drive bore with an opposing first drive aperture and a second drive aperture that receive the torque transfer tube , within the drive bore , the first drive aperture and the second drive aperture are a plurality of drive zones separated by one of a plurality of drive relief zones , wherein each one of the plurality of drive zones creates a torsional non-sliding interference fit between the torque transfer tube and the drive bore of the driven link and at least one of the plurality of drive relief zones creates a neutral fit between the torque transfer tube and the drive bore , wherein the plurality of drive zones and the plurality of drive relief zones reduce the spacing tolerances and eliminate lag between the driven link and the torque transfer tube , when the torque transfer tube rotates; and an actuator (12; 112; 212) rotatably connected to the torque transfer tube for rotating the torque transfer tube thereby transferring torque to the four bar linkage through the driven link .
A luminaire driver for driving a light module of a luminaire; said luminaire driver comprising a driver housing with a first and second power supply input connector element for connection to an electrical distribution grid, and output connector elements for connection to the light module ; a driver circuitry arranged inside said driver housing, between said first and second power supply input connector elements and said output connector elements; wherein said driver housing is provided with an equipotential connecting part available at an external surface of said driver housing and intended for being connected to an equipotential part of the luminaire; said luminaire driver further comprising a resistive circuitry arranged inside said driver housing and connected between the equipotential connecting part and the first power supply input connector element.
A non-planar substrate comprising a flexible circuit board bent into a three-dimensional shape that fits inside an electronic contact lens designed to be worn on a human eye, the three-dimensional shape including a band of flat facets configured to carry electrical components, wherein the band contains twelve facets (420A-L) that form substantially a full annulus, and the electrical components comprise a first pair of accelerometers mounted on opposing facets and a second pair of accelerometers also mounted on opposing facets, wherein no two of the accelerometers are mounted on adjacent facets.
A membrane pump (100; 101) comprising: - a pump body having a working chamber ; - a head , having a distribution chamber , said pump body and said head being coupled at a coupling surface (S) to delimit a pumping chamber (L) formed between a terminal wall of said pump body and a terminal wall of said head ; and - at least one membrane positioned, or positionable, in said pumping chamber (L), at said coupling surface (S), configured to separate said working chamber from said distribution chamber , said membrane being shaped to be moved by means of a fluid contained in said working chamber , from a suction configuration to a delivery configuration within said pumping chamber (L), said pump (100; 101) further comprising a sealing device (7; 70) coupled, or coupable, to said membrane , wherein said sealing device (7; 70) is configured to: abut with an outlet mouth of said working chamber at said suction configuration of the membrane , in a manner such as to seal the area of a first interspace (C) comprised between said terminal wall of said pump body and a bending portion (F) of said membrane , said bending portion (F) being a membrane portion comprised between said sealing device (7; 70) and said coupling surface (S), said bending portion (F) being a membrane portion which, during an operating condition of the pump, is exposed on both sides, respectively, to the working fluid and the pumping fluid, wherein the fluid contained in said first interspace (C) cannot be forced out from said first interspace (C) and thereby supports said bending portion (F) of the membrane , therefore said interspace (C) spaces said bending portion (F) from said terminal wall of said pump body at said suction configuration of the membrane ; and/or to abut with an inlet mouth of said distribution chamber at said delivery configuration of the membrane , in a manner such as to seal an area of a second interspace (C') comprised between said terminal wall of said head and said bending portion (F) of the membrane , wherein the fluid contained in said second interspace (C') supports said bending portion (F) of the membrane which is not in contact with said terminal wall of said head at said delivery configuration of the membrane . - a pump body having a working chamber ; - a head , having a distribution chamber , said pump body and said head being coupled at a coupling surface (S) to delimit a pumping chamber (L) formed between a terminal wall of said pump body and a terminal wall of said head ; and - at least one membrane positioned, or positionable, in said pumping chamber (L), at said coupling surface (S), configured to separate said working chamber from said distribution chamber , said membrane being shaped to be moved by means of a fluid contained in said working chamber , from a suction configuration to a delivery configuration within said pumping chamber (L),
An electrical connector assembly , comprising: a connector housing defining a cavity in which a pair of electrical busbars is disposed, wherein the connector housing defines an opening to the cavity ; and a cover attached to the connector housing and configured to cool the pair of electrical busbars , arranged proximate the pair of electrical busbars to extract heat from the pair of electrical busbars , wherein the cover includes a coolant channel in fluidic communication with an inlet port and an outlet port , characterized in that a portion of the cover is in intimate thermal and physical contact with the pair of electrical busbars , wherein the cover has a dielectric thermal interface material layer that is in intimate thermal contact with the pair of electrical busbars , thereby electrically isolating the pair of electrical busbars from one another. a connector housing defining a cavity in which a pair of electrical busbars is disposed, wherein the connector housing defines an opening to the cavity ; and a cover attached to the connector housing and configured to cool the pair of electrical busbars , arranged proximate the pair of electrical busbars to extract heat from the pair of electrical busbars , wherein the cover includes a coolant channel in fluidic communication with an inlet port and an outlet port , characterized in that a portion of the cover is in intimate thermal and physical contact with the pair of electrical busbars , wherein the cover has a dielectric thermal interface material layer that is in intimate thermal contact with the pair of electrical busbars , thereby electrically isolating the pair of electrical busbars from one another.
A cable grommet element for sealed entry of an electricity cable into an housing , wherein the grommet element is configured to be physically and/or chemically bound to the electricity cable , wherein the grommet element comprises a body , an engagement element , a flexible projection , and a cable transit , wherein: - the body comprises a first wall , a second wall , and a side wall connecting the first wall to the second wall ; - the engagement element protrudes from the first wall of the body , wherein the engagement element comprises an engagement element side wall and an engagement element top part , wherein the engagement element side wall comprises a flexible rim configured along a perimeter of the engagement element side wall ; wherein the engagement element further comprises an alignment portion protruding from the engagement element side wall ; - the flexible projection protrudes from the second wall of the body ; and - the cable transit is configured for transit of the electricity cable from the side wall of the body to the engagement element top part . - the body comprises a first wall , a second wall , and a side wall connecting the first wall to the second wall ; - the engagement element protrudes from the first wall of the body , wherein the engagement element comprises an engagement element side wall and an engagement element top part , wherein the engagement element side wall comprises a flexible rim configured along a perimeter of the engagement element side wall ; wherein the engagement element further comprises an alignment portion protruding from the engagement element side wall ; - the flexible projection protrudes from the second wall of the body ; and - the cable transit is configured for transit of the electricity cable from the side wall of the body to the engagement element top part .
An orthopaedic implant system including an orthopaedic screw and an orthopaedic implant , the orthopaedic screw being adapted to be connected to the orthopaedic implant, the orthopaedic screw comprising a main body having outer threads and a torqueing end , an inner chamber formed therein, and at least two mating features separated by a separation gap , said separation gap extending into said inner chamber; and a support member removably placed in said inner chamber of said main body and having a support portion at least partially filling said separation gap between said at least two mating features for locking the orthopaedic screw to the orthopaedic implant, preventing collapse of said mating features and maintaining said separation gap , wherein said internal chamber has a threading formed therein and said support member is an internal screw having a screw body with a body threading formed thereon, said body threading of said screw body interfacing with said threading of said internal chamber to removably couple said support member to said main body, wherein said at least two mating features are tapered and said separation gap is a split formed in said main body, the orthopaedic implant comprising: an articulating component having an articulating surface and an interface surface opposed to said articulating surface; and a body component connected to said interface surface and having a first surface , a second surface opposed to said first surface and at least one protrusion , said first surface connected to said interface surface and said at least one protrusion extending away from said second surface, said at least one protrusion having a bore formed therein, characterised in that said bore has at least two lips , said at least two mating features abutting against said at least two lips for locking in with said at least two lips, wherein said at least two lips define a clearance width in said bore and said at least two mating features together define a mating width which is less than said clearance width and, wherein said at least two mating features and said support portion together define a supported width which is greater than said clearance width.
A blower device with a blower housing of a blower , a diffuser housing that is fastened to the blower housing , and a diffuser that is accommodated in the diffuser housing , wherein a closed triangular sealing groove with three sealing surfaces is formed between the blower housing , the diffuser housing and the diffuser , wherein the blower housing , the diffuser housing , and the diffuser respectively form one of the three sealing surfaces, and wherein a sealing element is arranged in the closed triangular sealing groove which seals the blower housing , the diffuser housing , and the diffuser from one another.
A hydraulic system for a mobile construction vehicle , comprising: a variable displacement track motor configured to be coupled to a track of the mobile construction vehicle to drive the track; an accumulator for storing pressurized hydraulic fluid for use as a power supply to a non-track load implement ; a pump dedicated to the track motor ; and control valving that is operable between a first position at which the control valving directs hydraulic fluid from the dedicated pump to the variable displacement track motor to drive the variable displacement track motor , and a second position at which the control valving directs hydraulic fluid from the dedicated pump to the accumulator . a variable displacement track motor configured to be coupled to a track of the mobile construction vehicle to drive the track; an accumulator for storing pressurized hydraulic fluid for use as a power supply to a non-track load implement ; a pump dedicated to the track motor ; and control valving that is operable between a first position at which the control valving directs hydraulic fluid from the dedicated pump to the variable displacement track motor to drive the variable displacement track motor , and a second position at which the control valving directs hydraulic fluid from the dedicated pump to the accumulator .
Apparatus for forming a spirally wound conduit from a flat strip comprising: a forming device comprising a bending section configured to spirally bend the strip and a joining section configured to join opposite longitudinal sides of the strip each other; a feeding device of the strip along a feeding direction (F) parallel to the longitudinal edges of the strip ; a cutting device arranged upstream the forming device comprising a cutting head for cutting the strip , wherein the cutting head comprises one among: a laser cutter , a water jet cutter , a plasma torch, or a puncher and characterized by comprising: moving means configured to move said cutting head along a plurality of moving axes (X,Y,Z) orthogonal to each other, one of the axes (X) being orthogonal to the feeding direction of the strip and parallel to a levelling plane on which the strip lies; a control unit configured to command said moving means according to a diameter (D) of the conduit to be realized and to a width (B) of the strip so that said cutting head realizes on the strip a plurality of arrays of holes each one tilted with respect to one of the longitudinal edges of the strip by an angle (α) that is function of the width (B) of the strip and of the diameter (D) of the spiral conduit to be realized. a forming device comprising a bending section configured to spirally bend the strip and a joining section configured to join opposite longitudinal sides of the strip each other; a feeding device of the strip along a feeding direction (F) parallel to the longitudinal edges of the strip ; a cutting device arranged upstream the forming device comprising a cutting head for cutting the strip , wherein the cutting head comprises one among: a laser cutter , a water jet cutter , a plasma torch, or a puncher and characterized by comprising: moving means configured to move said cutting head along a plurality of moving axes (X,Y,Z) orthogonal to each other, one of the axes (X) being orthogonal to the feeding direction of the strip and parallel to a levelling plane on which the strip lies; a control unit configured to command said moving means according to a diameter (D) of the conduit to be realized and to a width (B) of the strip so that said cutting head realizes on the strip a plurality of arrays of holes each one tilted with respect to one of the longitudinal edges of the strip by an angle (α) that is function of the width (B) of the strip and of the diameter (D) of the spiral conduit to be realized. moving means configured to move said cutting head along a plurality of moving axes (X,Y,Z) orthogonal to each other, one of the axes (X) being orthogonal to the feeding direction of the strip and parallel to a levelling plane on which the strip lies; a control unit configured to command said moving means according to a diameter (D) of the conduit to be realized and to a width (B) of the strip so that said cutting head realizes on the strip a plurality of arrays of holes each one tilted with respect to one of the longitudinal edges of the strip by an angle (α) that is function of the width (B) of the strip and of the diameter (D) of the spiral conduit to be realized.
A timepiece bearing comprising a first ring , particularly an inner ring, a second ring , particularly an outer ring, rolling bodies and a cage for separating rolling bodies for a bearing , the cage having first openings for receiving rolling bodies and at least one first contact zone intended to come into contact with a bearing ring and having at least one hollow formation , wherein the cage and the first and second rings are arranged so that the area of a surface (A) of the cage capable of coming into contact with the ring is less than 0.6 or 0.5 or 0.45 or 0.4 or 0.3 times the area of: - the orthogonal projection (B) of the cage along an axis (A1) of the cage, particularly an axis (A1) of rotational symmetry of the cage, when the cage is a flat annular cage; or - the cylindrical surface (B) of a cylinder having a diameter equal to that of the diameter of the cylinder defining the surface (A) of the cage and included between two end edges of the cage when the cage is a cylindrical cage. - the orthogonal projection (B) of the cage along an axis (A1) of the cage, particularly an axis (A1) of rotational symmetry of the cage, when the cage is a flat annular cage; or - the cylindrical surface (B) of a cylinder having a diameter equal to that of the diameter of the cylinder defining the surface (A) of the cage and included between two end edges of the cage when the cage is a cylindrical cage.