mhurhangee/ep-ind-claims huggingface dataset:
An orthopaedic implant, comprising: an implant body having a first surface, a second surface opposite said first surface, and a cavity formed therein that extends through said first surface and said second surface, said implant body being substantially non-porous; and a load bearing member comprising a substantially porous material held within said cavity, said load bearing member having a first contact surface extending out of said cavity and being proud of a portion of said first surface, wherein said substantially non-porous implant body is a unibody and surrounds an entire periphery of at least a portion of the load bearing member and the load bearing member comprises a metal or a polymer, wherein said load bearing member comprises at least one of polyether ether ketone (PEEK), tantalum, and titanium. and/or has a total volume and said interconnecting pores in aggregate occupy at least 60%, preferably 80% of said total volume, and said load bearing member has a second contact surface opposite said first contact surface, said load bearing member having interconnecting pores extending from said first contact surface to said second contact surface, characterized in that said thickness of said first contact surface relative to said first surface is constant throughout said first contact surface. an implant body having a first surface, a second surface opposite said first surface, and a cavity formed therein that extends through said first surface and said second surface, said implant body being substantially non-porous; and a load bearing member comprising a substantially porous material held within said cavity, said load bearing member having a first contact surface extending out of said cavity and being proud of a portion of said first surface, wherein said substantially non-porous implant body is a unibody and surrounds an entire periphery of at least a portion of the load bearing member and the load bearing member comprises a metal or a polymer, wherein said load bearing member comprises at least one of polyether ether ketone (PEEK), tantalum, and titanium. and/or has a total volume and said interconnecting pores in aggregate occupy at least 60%, preferably 80% of said total volume, and said load bearing member has a second contact surface opposite said first contact surface, said load bearing member having interconnecting pores extending from said first contact surface to said second contact surface, characterized in that said thickness of said first contact surface relative to said first surface is constant throughout said first contact surface.
Outer shell for a sport footwear, characterized in that at least part of said outer shell is made of a polymer mixture comprising at least one toughened polyolefin and at least one ionomeric polymer.
A multi-phase soft gelatin capsule for oral administration, the soft gelatin capsule comprising: at least one preformed solid dosage form being a pharmaceutical grade finished dosage form being a tablet comprising a statin compound; and at least one liquid fill phase comprising omega-3 fatty acids; wherein the at least one solid dosage form and the at least one liquid fill phase are independently introduced in the soft gelatin capsule. at least one preformed solid dosage form being a pharmaceutical grade finished dosage form being a tablet comprising a statin compound; and at least one liquid fill phase comprising omega-3 fatty acids; wherein the at least one solid dosage form and the at least one liquid fill phase are independently introduced in the soft gelatin capsule.
Process for making an electrode active material wherein said process comprises the following steps: (a) Providing a hydroxide TM 2 or at least one oxide TMO or at least one oxyhydroxide of TM or a combination of at least two of the foregoing wherein TM is one or more metals and contains at least 97 mol-% Ni and, optionally, in total up to 3 mol-% of at least one metal selected from Al, Ti, Zr, V, Co, Zn, Ba, and Mn, (b) mixing said hydroxide TM 2 or oxide TMO or oxyhydroxide of TM or combination with a source of lithium and a source of Mg wherein the molar amount of (Li + Mg) corresponds to 75 to 95 mol-% of TM, (c) treating the mixture obtained from step (b) thermally at a temperature in the range of from 450 to 650°C, thereby obtaining an intermediate, (d) mixing the intermediate from step (c) with a source of Li and with at least one compound of a metal M 1 selected from Al, Zr, Co, Mn, Nb, Ta, Mo, and W, (e) treating the mixture obtained from step (d) thermally at a temperature in the range of from 500 to 850°C. (a) Providing a hydroxide TM 2 or at least one oxide TMO or at least one oxyhydroxide of TM or a combination of at least two of the foregoing wherein TM is one or more metals and contains at least 97 mol-% Ni and, optionally, in total up to 3 mol-% of at least one metal selected from Al, Ti, Zr, V, Co, Zn, Ba, and Mn, (b) mixing said hydroxide TM 2 or oxide TMO or oxyhydroxide of TM or combination with a source of lithium and a source of Mg wherein the molar amount of (Li + Mg) corresponds to 75 to 95 mol-% of TM, (c) treating the mixture obtained from step (b) thermally at a temperature in the range of from 450 to 650°C, thereby obtaining an intermediate, (d) mixing the intermediate from step (c) with a source of Li and with at least one compound of a metal M 1 selected from Al, Zr, Co, Mn, Nb, Ta, Mo, and W, (e) treating the mixture obtained from step (d) thermally at a temperature in the range of from 500 to 850°C.
An accessory for a power tool, comprising: a mounting portion (54; 154) configured to mate with an oscillating drive member of a power tool, the mounting portion (54; 154) defines an oscillation plane; and a substantially planar guide portion (56; 156) extending forwardly of the mounting portion (54; 154) to a leading edge and defining a guide plane, the guide plane being arranged beneath and substantially parallel to the oscillation plane; characterized by a cantilever arm located between the mounting portion (54; 154) and the leading edge, the cantilever arm being arranged beneath the guide plane and extending forwardly toward the leading edge; and a plurality of teeth extending from a forward portion of the cantilever arm. a mounting portion (54; 154) configured to mate with an oscillating drive member of a power tool, the mounting portion (54; 154) defines an oscillation plane; and a substantially planar guide portion (56; 156) extending forwardly of the mounting portion (54; 154) to a leading edge and defining a guide plane, the guide plane being arranged beneath and substantially parallel to the oscillation plane; characterized by a cantilever arm located between the mounting portion (54; 154) and the leading edge, the cantilever arm being arranged beneath the guide plane and extending forwardly toward the leading edge; and a plurality of teeth extending from a forward portion of the cantilever arm.
A gastro-intestinal release capsule intended for oral use in a method which enables desensitisation and/or a tolerance to be induced in a subject allergic to peanuts, the capsule comprising a shell and a core, the core comprising a peanut composition which comprises peanut, at least one oil, at least a first pulverulent excipient and optionally at least a second prebiotic excipient; the capsule being provided and ingested in a non-open form; the capsule preferably being provided in a form which is non-open and not mixed with the bolus.
A polyaxial bone screw comprising a head, a shank (6,106), a retainer ring (8,88,107) separate from said shank and received in said head; said retainer ring mating with and being secured to a shank upper portion, the polyaxial bone screw characterized in that: a) the head having a channel adapted to receive an elongate rod member and having a bore partially defining a restrictive neck; b) the shank having a lower portion (15,110) adapted to be implanted in a bone of a patient and the upper portion being sized and shaped to be positioned inside the head and including a radially outward projecting spline (24, 120); c) the retainer ring including a spline receiving recess (62, 94, 120) that receives the spline to secure the ring to said shank upper portion so as to be able to polyaxially rotate with the shank relative to the head prior to locking of an angular position of the shank relative to the head, a retainer ring outer surface radius being larger than the restrictive neck so as to hold said shank in said head while allowing polyaxial movement of said shank and retaining ring relative to said head during positioning; and d) said shank upper portion being sized, shaped and positioned so as to receive a downward pressure force from said rod member after the rod member is received in the channel and thereafter the shank transfers the pressure force to the retainer ring to lock the position of the shank and the retainer ring relative to the head. a) the head having a channel adapted to receive an elongate rod member and having a bore partially defining a restrictive neck; b) the shank having a lower portion (15,110) adapted to be implanted in a bone of a patient and the upper portion being sized and shaped to be positioned inside the head and including a radially outward projecting spline (24, 120); c) the retainer ring including a spline receiving recess (62, 94, 120) that receives the spline to secure the ring to said shank upper portion so as to be able to polyaxially rotate with the shank relative to the head prior to locking of an angular position of the shank relative to the head, a retainer ring outer surface radius being larger than the restrictive neck so as to hold said shank in said head while allowing polyaxial movement of said shank and retaining ring relative to said head during positioning; and d) said shank upper portion being sized, shaped and positioned so as to receive a downward pressure force from said rod member after the rod member is received in the channel and thereafter the shank transfers the pressure force to the retainer ring to lock the position of the shank and the retainer ring relative to the head.
Façade light with a housing for receiving lighting means, operating devices and connecting terminals, with light-emitting diodes as lighting means and optics for distributing light emitted by the light-emitting diodes, characterized in that at least two light-emitting diodes are combined to LED clusters, in that an optic is assigned to each LED cluster, wherein the light emitted by the light-emitting diodes of the LED cluster passes through the optic and the optic is designed in such a way that it generates an elliptical light distribution, in that the housing is divided into at least two sections (A1, A2), wherein there is room for operating devices in a first section and at least one LED cluster is arranged in a second lateral section (A1; A3), in that each LED cluster is coupled with means for dissipating the heat generated during the operation of the light-emitting diodes, and in that the LED clusters are arranged next to one another, essentially along a straight, wherein the straight runs parallel to the longitudinal extension of the elliptical light distribution.
A system (100, 200, 300, 400) for passively eliminating noncondensable gasses in a nuclear power plant, the system comprising: a catalyst material (105, 205, 305, 405) within a structure of a Passive Containment Cooling System (PCCS) condenser in the nuclear power plant subject to noncondensable gas exposure, the catalyst material (105, 205, 305, 405) configured to catalyze a reaction in the noncondensable gas to an inert byproduct, characterized in that the catalyst material is included in: at least one catalyst plate (105, 405) positioned under a drip hood (75, 410) of a drain manifold in a lower header of the PCCS condenser. a catalyst material (105, 205, 305, 405) within a structure of a Passive Containment Cooling System (PCCS) condenser in the nuclear power plant subject to noncondensable gas exposure, the catalyst material (105, 205, 305, 405) configured to catalyze a reaction in the noncondensable gas to an inert byproduct, characterized in that the catalyst material is included in: at least one catalyst plate (105, 405) positioned under a drip hood (75, 410) of a drain manifold in a lower header of the PCCS condenser. at least one catalyst plate (105, 405) positioned under a drip hood (75, 410) of a drain manifold in a lower header of the PCCS condenser.
A spherical annular seal member for use in an exhaust pipe joint, comprising: a spherical annular base member defined by a cylindrical inner surface, a partially convex spherical surface, and annular end faces on large- and small-diameter sides of the partially convex spherical surface; and an outer layer formed integrally on the partially convex spherical surface of said spherical annular base member, wherein said spherical annular base member includes a reinforcing member for said spherical annular base member made from a compressed knitted metal wire net which is knitted by using a fine metal wire with a diameter of 0.28 to 0.32 mm and whose mesh size is 4 to 6 mm long and 3 to 5 mm wide and a heat-resistant material for said spherical annular base member containing expanded graphite and compressed in such a manner as to fill meshes of the knitted metal wire net of the reinforcing member and to be formed integrally with the reinforcing member in mixed form, and wherein said outer layer includes a reinforcing member for said outer layer made from a compressed knitted metal wire net which is knitted by using a fine metal wire, a solid lubricant consisting of a lubricating composition, and a heat-resistant material for said outer layer containing expanded graphite, the heat-resistant material and the solid lubricant for said outer layer being compressed in such a manner as to fill meshes of the knitted metal wire net of the reinforcing member for said outer layer, the reinforcing member for said outer layer being overlaid on the partially convex spherical surface of said spherical annular base member densely in a radial direction, an outer surface of said outer layer being formed into a smooth composite surface in which a surface constituted by the reinforcing member for said outer layer and a surface constituted by the solid lubricant are exposed in mixed form, the spherical annular seal member being characterized in that said fine metal wire used for knitting the compressed knitted metal wire net from which the reinforcing member for said outer layer is made has a diameter of 0.10 to 0.20 mm, said compressed knitted metal wire net has a mesh size of 1.0 to 3.0 mm long and 0.5 to 2.5 mm wide, and an occupying area ratio of the surface constituted by the reinforcing member for said outer layer on the outer surface of said outer layer being 30 to 60%.
A method of surface finishing an orthopaedic implant (10, 110, 120) comprising: a. fixturing a machined orthopaedic implant having a targeted surface (14, 114, 214) with machine lines on a platform (20,120, 220) in a wet blasting cabinet, the wet blasting cabinet (12, 112, 212) having at least one nozzle (18, 118, 218); b. rotating the platform at a speed of about 5 to about 360 revolutions per minute; c. moving the at least one nozzle and the platform relative to one another in a linear motion at a speed of 254 mm to 1524 mm (10 to 60 inches) per minute; and d. applying a slurry mixture at an impaction angle to the targeted surface through the at least one nozzle at pressure of 0.1 MPa to 0.41 MPa (15 to 60 pounds per square inch) to remove machine lines and blend the targeted surface, wherein the pressure is a combination pressure of both air pressure and slurry pressure, and wherein the at least one nozzle is located from about 6.35 mm (0.25 inches) to about 457 mm (18 inches) away from the targeted surface, and the at least one nozzle has a bore from about 6.35 mm (0.25 inches) to about 12.70 mm (0.50 inches) in diameter. a. fixturing a machined orthopaedic implant having a targeted surface (14, 114, 214) with machine lines on a platform (20,120, 220) in a wet blasting cabinet, the wet blasting cabinet (12, 112, 212) having at least one nozzle (18, 118, 218); b. rotating the platform at a speed of about 5 to about 360 revolutions per minute; c. moving the at least one nozzle and the platform relative to one another in a linear motion at a speed of 254 mm to 1524 mm (10 to 60 inches) per minute; and d. applying a slurry mixture at an impaction angle to the targeted surface through the at least one nozzle at pressure of 0.1 MPa to 0.41 MPa (15 to 60 pounds per square inch) to remove machine lines and blend the targeted surface, wherein the pressure is a combination pressure of both air pressure and slurry pressure, and wherein the at least one nozzle is located from about 6.35 mm (0.25 inches) to about 457 mm (18 inches) away from the targeted surface, and the at least one nozzle has a bore from about 6.35 mm (0.25 inches) to about 12.70 mm (0.50 inches) in diameter.
An interactive beverage preparation station comprising a user input interface for a beverage order, a robotic station to collect ingredients on the basis of the order, mix the ingredients and pour the beverage in an open top container, a pick-up zone (4, 4') where the user receives the open top container from the robotic station and a control unit to automatically control the robotic station based on the inputs from the input interface to prepare the beverage correspondent to the beverage order, wherein the robotic station comprises at least one robotic arm having an end effector to collect ingredients, and performing bartending operations including at least one of shaking and/or muddling and/or blending and/or straining, characterized in that the end effector comprises a bottom to receive ingredients and an actuated cap controlled by the control unit for waterproof closing of the bottom.
Hybrid module with the following features: a vibration reduction system which is coupled between an output side and an inlet side of the hybrid module and is configured to reduce a rotational non-uniformity which is coupled in, the vibration reduction system having a prestress which is higher than an assembly-induced prestress and corresponds at least to a proportion of 5% of a maximum torque which can be coupled in on the input side, the vibration reduction system having, over a deflection, a substantially linear torque characteristic (60, 58) which corresponds at least to a proportion of 40% of an overall deflection, in which the vibration reduction system can be loaded; and an electric machine which is coupled to the input side or to the output side of the hybrid module and is configured to introduce a torque on the input side or on the output side, which torque is directed counter to a rotational non-uniformity which is coupled into the hybrid module, in order to reduce the said rotational non-uniformity, the vibration reduction system being configured to reduce the rotational non-uniformity to a greater extent at a second rotational speed than at a first rotational speed, at which a torque can be introduced by the electric machine in order to reduce the rotational non-uniformity. a vibration reduction system which is coupled between an output side and an inlet side of the hybrid module and is configured to reduce a rotational non-uniformity which is coupled in, the vibration reduction system having a prestress which is higher than an assembly-induced prestress and corresponds at least to a proportion of 5% of a maximum torque which can be coupled in on the input side, the vibration reduction system having, over a deflection, a substantially linear torque characteristic (60, 58) which corresponds at least to a proportion of 40% of an overall deflection, in which the vibration reduction system can be loaded; and an electric machine which is coupled to the input side or to the output side of the hybrid module and is configured to introduce a torque on the input side or on the output side, which torque is directed counter to a rotational non-uniformity which is coupled into the hybrid module, in order to reduce the said rotational non-uniformity, the vibration reduction system being configured to reduce the rotational non-uniformity to a greater extent at a second rotational speed than at a first rotational speed, at which a torque can be introduced by the electric machine in order to reduce the rotational non-uniformity.
Pouring aid device for pouring a liquid, for example wine, from a container such as a bottle into a recipient such as a glass including - a neck part which is configured to fit on an opening of the container, for example on a bottle neck; - a pouring tube in fluid connection with a liquid channel of said neck part; - an air tube in fluid connection with an air channel of said neck part, arranged to extend into the container for letting air into and out of the container; wherein the air tube is configured to reach a bottom corner of the container such that in use during pouring, the air tube extends into an air bell formed in the bottom corner of the container; and wherein the air channel of the neck part is separate from the liquid channel to prevent the liquid being poured out of the container during use from coming into contact with air entering the container; characterised in that the angle between an exit opening of the pouring tube and a centre line of the neck part is comprised in a range of 130°-140°, and is preferably around 135°, and in that the pouring aid device further comprises a housing including a first housing part arranged to substantially enclose part of the neck part and a second housing part substantially enclosing the pouring tube, wherein the first housing part is pivotably attached to said second housing part that comprises a substantially cylindrical or spherical or rounded end around which the first housing part can pivot, wherein the end comprises a cavity through which the pouring tube extends and into which the air channel of the neck part extends. - a neck part which is configured to fit on an opening of the container, for example on a bottle neck; - a pouring tube in fluid connection with a liquid channel of said neck part; - an air tube in fluid connection with an air channel of said neck part, arranged to extend into the container for letting air into and out of the container; wherein the air channel of the neck part is separate from the liquid channel to prevent the liquid being poured out of the container during use from coming into contact with air entering the container; characterised in that the angle between an exit opening of the pouring tube and a centre line of the neck part is comprised in a range of 130°-140°, and is preferably around 135°, and in that the pouring aid device further comprises a housing including a first housing part arranged to substantially enclose part of the neck part and a second housing part substantially enclosing the pouring tube, wherein the first housing part is pivotably attached to said second housing part that comprises a substantially cylindrical or spherical or rounded end around which the first housing part can pivot, wherein the end comprises a cavity through which the pouring tube extends and into which the air channel of the neck part extends.