mhurhangee/ep-ind-claims huggingface dataset:
A coupling system for coupling a curved object (21, 31, 41, 50, 63) to a central shaft (43, 47, 51), the curved object includes an inner surface facing the central shaft and an outer surface facing the opposite direction, the system comprising: - a coupling member arranged for coupling the curved object (21, 31, 41, 50, 63) to the central shaft (43, 47, 51); - at least one pocket (44, 54, 60) integrally formed on a curved surface of the curved object (21, 31, 41, 50, 63) and defined as a depression with respect to at least one of the inner and outer surfaces, wherein said pocket (44, 54, 60) includes: a flat portion having an aperture for holding said coupling member; and a flange portion (22, 23, 56) which merges continuously from the flat portion to the curved object (21, 31) and is shaped such that said flat portion is disposed perpendicularly to the coupling member; wherein the thickness of the flat portion and the flange portion (22, 23) is the thickness of the curved object and said flat portion extends between the outer surface and the inner surface; and - a fastening member (25, 26, 27) for fastening said coupling member to said flat portion; and - a first nubbin of the flange portion (22, 23) that protrudes from the outer surface of the curved object (21, 31) and a second nubbin of the flange portion (22, 23) that protrudes from the inner surface of the curved object (21, 31). - a coupling member arranged for coupling the curved object (21, 31, 41, 50, 63) to the central shaft (43, 47, 51); - at least one pocket (44, 54, 60) integrally formed on a curved surface of the curved object (21, 31, 41, 50, 63) and defined as a depression with respect to at least one of the inner and outer surfaces, wherein said pocket (44, 54, 60) includes: a flat portion having an aperture for holding said coupling member; and a flange portion (22, 23, 56) which merges continuously from the flat portion to the curved object (21, 31) and is shaped such that said flat portion is disposed perpendicularly to the coupling member; wherein the thickness of the flat portion and the flange portion (22, 23) is the thickness of the curved object and said flat portion extends between the outer surface and the inner surface; and a flat portion having an aperture for holding said coupling member; and a flange portion (22, 23, 56) which merges continuously from the flat portion to the curved object (21, 31) and is shaped such that said flat portion is disposed perpendicularly to the coupling member; wherein the thickness of the flat portion and the flange portion (22, 23) is the thickness of the curved object and said flat portion extends between the outer surface and the inner surface; and - a fastening member (25, 26, 27) for fastening said coupling member to said flat portion; and - a first nubbin of the flange portion (22, 23) that protrudes from the outer surface of the curved object (21, 31) and a second nubbin of the flange portion (22, 23) that protrudes from the inner surface of the curved object (21, 31).
A composite material for mechanical components of force and motion transmission consisting of at least three constituents (i) at least 45% by weight of a substrate material in relation to the total weight of the composite material consisting of polyether ether ketone, (ii) 3 to 20% by weight of a first fibrous reinforcing material in relation to the total weight of the composite material, and (iii) 10 to 45% by weight of a second reinforcing material in relation to the total weight of the composite material, wherein the first fibrous reinforcing material has a lower thermal expansion coefficient than the second reinforcing material and wherein the second reinforcing material has a lower electrical conductivity than the first reinforcing material and wherein the parts by weight of the constituents contained in the composite material add up to 100%, and wherein the first fibrous reinforcing material contains or is carbon fiber, and wherein the second reinforcing material contains or is glass fiber. (i) at least 45% by weight of a substrate material in relation to the total weight of the composite material consisting of polyether ether ketone, (ii) 3 to 20% by weight of a first fibrous reinforcing material in relation to the total weight of the composite material, and (iii) 10 to 45% by weight of a second reinforcing material in relation to the total weight of the composite material, wherein the first fibrous reinforcing material has a lower thermal expansion coefficient than the second reinforcing material and wherein the second reinforcing material has a lower electrical conductivity than the first reinforcing material and wherein the parts by weight of the constituents contained in the composite material add up to 100%, and wherein the first fibrous reinforcing material contains or is carbon fiber, and wherein the second reinforcing material contains or is glass fiber.
A refrigerator comprising: a storage chamber having an opening; a drawer type door to open or close the opening; a frame coupled to the drawer type door and supporting a storage basket; a display coupled to the drawer type door; a wire extending from an inner wall of the storage chamber; and a connector attached to the drawer type door and electrically connecting the wire to the display; characterized in that the refrigerator further comprises a cover coupled to the rear portion of the drawer type door to cover the connector and at least a portion of the wire between the frame and the connector. a storage chamber having an opening; a drawer type door to open or close the opening; a frame coupled to the drawer type door and supporting a storage basket; a display coupled to the drawer type door; a wire extending from an inner wall of the storage chamber; and a connector attached to the drawer type door and electrically connecting the wire to the display; characterized in that the refrigerator further comprises a cover coupled to the rear portion of the drawer type door to cover the connector and at least a portion of the wire between the frame and the connector.
Method for controlling access to a security module of a mobile terminal by an application of the mobile terminal, said method comprising: - sending, by a current application of the mobile terminal, of an access request (sendAPDU) to the security module, said access request comprising the current identifier (AID j) of an applet contained in the security module, - reading, by the operating system of the mobile terminal, of a correspondence table comprising a set of access control rules, an access control rule comprising the identifier of an applet of the security module associated with a check value for an application of the mobile terminal, said access control rule indicating that said application of the mobile terminal is authorized to communicate with the applet of the security module, - obtaining a current check value for the current application from at least one certificate of a developer of the current application and from an identifier of the current application that are associated with the current application, - searching in the correspondence table for an access control rule comprising the current identifier of the applet associated with the current check value, the current application being authorized to communicate with the current applet when the search is positive. - sending, by a current application of the mobile terminal, of an access request (sendAPDU) to the security module, said access request comprising the current identifier (AID j) of an applet contained in the security module, - reading, by the operating system of the mobile terminal, of a correspondence table comprising a set of access control rules, an access control rule comprising the identifier of an applet of the security module associated with a check value for an application of the mobile terminal, said access control rule indicating that said application of the mobile terminal is authorized to communicate with the applet of the security module, - obtaining a current check value for the current application from at least one certificate of a developer of the current application and from an identifier of the current application that are associated with the current application, - searching in the correspondence table for an access control rule comprising the current identifier of the applet associated with the current check value, the current application being authorized to communicate with the current applet when the search is positive.
A method of forming an electroless nickel-phosphorous coating on an alkaline zincate coated substrate, the method comprising: providing the alkaline zincate coated substrate; contacting surfaces of the zincate coated substrate with an aqueous electroless nickel-phosphorous plating bath, the bath consisting essentially of water, 2.0 g/L to 4 g/l Ni; 25 g/l to 40 g/l hypophosphorous reducing agent; 0 to 120 g/l orthophosphite by-product; less than 25 g/l of a combination of organic acid complexing agents selected from the group consisting of malic acid, lactic acid, and succinic acid, 0.0004 to 0.0007 g/l stabilizer, and at least one pH adjuster in an amount effective to provide the bath with a pH between 4.4 and 4.8, wherein the electroless nickel-phosphorous bath with an orthophosphite concentration of up to 120 g/l provides an electroless nickel-phosphorous deposit on the zincate coated substrate with an intrinsic stress that is more compressive than electroless nickel-phosphorous deposit provided using similar electroless-nickel-phosphorous baths containing greater than 5 g/l Ni. providing the alkaline zincate coated substrate; contacting surfaces of the zincate coated substrate with an aqueous electroless nickel-phosphorous plating bath, the bath consisting essentially of water, 2.0 g/L to 4 g/l Ni; 25 g/l to 40 g/l hypophosphorous reducing agent; 0 to 120 g/l orthophosphite by-product; less than 25 g/l of a combination of organic acid complexing agents selected from the group consisting of malic acid, lactic acid, and succinic acid, 0.0004 to 0.0007 g/l stabilizer, and at least one pH adjuster in an amount effective to provide the bath with a pH between 4.4 and 4.8, wherein the electroless nickel-phosphorous bath with an orthophosphite concentration of up to 120 g/l provides an electroless nickel-phosphorous deposit on the zincate coated substrate with an intrinsic stress that is more compressive than electroless nickel-phosphorous deposit provided using similar electroless-nickel-phosphorous baths containing greater than 5 g/l Ni.
Method for operating a water softening plant (1; 1') comprising an automatic blending device, an incoming flow of untreated water V roh being divided into - a first partial flow V teil1 which is softened, and - a second partial flow V teil2 which is not softened, and the two partial flows V teil1, V teil2 being combined into a flow of blended water V verschnitt, the proportions of the two partial flows A teil1, A teil2 in the flow of blended water V verschnitt being adjusted by the automatic blending device such that a desired hardness SW results in the flow of blended water V verschnitt, the proportions to be adjusted of the two partial flows A teil1, A teil2 being calculated from the hardness of the untreated water H roh and from the hardness of the softened water H weich, and the hardness of the untreated water H roh being derived from the conductivity of the untreated water LF roh by a calibration characteristic curve or a calibration function, characterised in that the proportions to be adjusted of the two partial flows A teil1, A teil2 are calculated according to A teil 1 = H roh − H verschnitt H roh − H weich, wherein H verschnitt =SW is set and A teil2 =1-A teil1; that the conductivity of the softened water LF weich is measured by a conductivity sensor in the softened first partial flow V teil1, and the conductivity of the blended water LF verschnitt is measured by a conductivity sensor in the blended water flow V verschnitt, the proportions of the partial flows A teil1, A teil2 in the flow of blended water V verschnitt being determined (102, 104, 106), wherein the proportions of the partial flows A teil1, A teil2 in the flow of blended water V verschnitt are determined by two flowmeters (3a, 3b) or are determined from an adjustment position of the automatic blending device, the automatic blending device comprising a sensor for determining the adjustment position, and that the conductivity of the untreated water LF roh is calculated from the measured conductivity of the soft water LF weich, from the measured conductivity of the blended water LF verschnitt and from the determined proportions of the partial flows A teil1, A teil2 according to L F roh = L F verschnitt − A teil 1 ⋅ L F weich A teil 2. - a first partial flow V teil1 which is softened, and - a second partial flow V teil2 which is not softened,
An apparatus, comprising an enclosure configured to contain at least one optoelectronic device and to interface the at least one optoelectronic device to a polymer-clad silica optical fiber lead, wherein the enclosure includes: a first section including: a base portion; and a wall portion coupled to a perimeter about the base portion, wherein the wall portion defines an open-ended slot in a first edge, and wherein the open-ended slot includes an open end that is configured to receive a first portion of the PCS optical fiber lead extending through the wall portion; and a second section configured to sealingly engage the first edge of the wall portion and the first portion of the optical fiber lead at the open end of the open-ended slot; wherein the first portion of the PCS optical fiber lead includes a metalized outer region and the second section includes a cap portion surrounded by a second wall portion extending to a second edge, wherein the second edge is configured to sealingly engage the first edge of the wall portion and the first portion of the PCS optical fiber lead, wherein the apparatus further comprises a preformed solder layer of the second edge, wherein heat applied proximate to the second edge causes the preformed solder layer to flow to seal the second edge to the first edge of the first section and to the first portion of the PCS optical fiber lead. a first section including: a base portion; and a wall portion coupled to a perimeter about the base portion, wherein the wall portion defines an open-ended slot in a first edge, and wherein the open-ended slot includes an open end that is configured to receive a first portion of the PCS optical fiber lead extending through the wall portion; and a base portion; and a wall portion coupled to a perimeter about the base portion, wherein the wall portion defines an open-ended slot in a first edge, and wherein the open-ended slot includes an open end that is configured to receive a first portion of the PCS optical fiber lead extending through the wall portion; and a second section configured to sealingly engage the first edge of the wall portion and the first portion of the optical fiber lead at the open end of the open-ended slot;
Preform for a container made of plastic, the preform comprising a body part comprising a wall with a thickness which extends along a longitudinal axis and which is connected via a periphery to a closed bottom part including an apex, the bottom part having ribs each extending from the apex of the bottom part to the periphery to form a star, said preform being characterised in that a substantially triangular zone arranged between two adjacent ribs and a portion of the periphery has a thickness that is less than the thickness of the wall.
Method for producing an electric motor with a bearing arrangement for an actuator, in particular for a damper flap, having the following steps: - provision of an electric motor bearing plate which is configured as a shaped sheet-metal part and has a flange region which is oriented in a radial direction of the bearing and a circular-cylindrical bearing seat region which extends in an axial direction, - provision of a first axial stop between the flange region and the bearing seat region; - arranging of a bearing in the interior of the bearing seat region, with the result that the bearing bears with a bearing shoulder against the first axial stop; - bending over of a section of the bearing seat region, in order to form a second axial stop, with the result that the second axial stop holds a further bearing shoulder in the axial direction, the section of the bearing seat region being shaped around the edge between the outer circumferential face of the bearing and the second bearing shoulder, a shaft opening being formed approximately centrally in the flange region, the edge of which shaft opening is formed by the first axial stop, and the shaft opening being configured to receive an armature shaft which is mounted as a locating bearing in the bearing arrangement and is received with a floating bearing in a pole pot of the electric motor. - provision of an electric motor bearing plate which is configured as a shaped sheet-metal part and has a flange region which is oriented in a radial direction of the bearing and a circular-cylindrical bearing seat region which extends in an axial direction, - provision of a first axial stop between the flange region and the bearing seat region; - arranging of a bearing in the interior of the bearing seat region, with the result that the bearing bears with a bearing shoulder against the first axial stop; - bending over of a section of the bearing seat region, in order to form a second axial stop, with the result that the second axial stop holds a further bearing shoulder in the axial direction, the section of the bearing seat region being shaped around the edge between the outer circumferential face of the bearing and the second bearing shoulder, a shaft opening being formed approximately centrally in the flange region, the edge of which shaft opening is formed by the first axial stop, and the shaft opening being configured to receive an armature shaft which is mounted as a locating bearing in the bearing arrangement and is received with a floating bearing in a pole pot of the electric motor.
A manufacturing method of a sample collector for collection and transport of biological liquid samples, which includes a supporter, and a collecting part which is formed at an end portion of the supporter and to which fiber yarns are planted, the manufacturing method comprising the steps of: A) preparing two or more fiber yarns which are different from each other in at least one of length and width; and B) planting each of the fiber yarns to the collecting part based on a flocking method, wherein in the step A), each of the fiber yarns are made of a nonhydrophilic material or a material which does not absorb liquid; and wherein the step B) comprises the steps of: B1) mixing and putting the fiber yarns into a planting container so that the fiber yarns are distributed evenly; B2) inserting the collecting part into the planting container and applying adhesive onto the surface of the collecting part; and B3) planting the fiber yarns to the collecting part by electrostatic charge of each of the fiber yarns. A) preparing two or more fiber yarns which are different from each other in at least one of length and width; and B) planting each of the fiber yarns to the collecting part based on a flocking method, wherein in the step A), each of the fiber yarns are made of a nonhydrophilic material or a material which does not absorb liquid; and wherein the step B) comprises the steps of: B1) mixing and putting the fiber yarns into a planting container so that the fiber yarns are distributed evenly; B2) inserting the collecting part into the planting container and applying adhesive onto the surface of the collecting part; and B3) planting the fiber yarns to the collecting part by electrostatic charge of each of the fiber yarns. wherein in the step A), each of the fiber yarns are made of a nonhydrophilic material or a material which does not absorb liquid; and wherein the step B) comprises the steps of: B1) mixing and putting the fiber yarns into a planting container so that the fiber yarns are distributed evenly; B2) inserting the collecting part into the planting container and applying adhesive onto the surface of the collecting part; and B3) planting the fiber yarns to the collecting part by electrostatic charge of each of the fiber yarns. B1) mixing and putting the fiber yarns into a planting container so that the fiber yarns are distributed evenly; B2) inserting the collecting part into the planting container and applying adhesive onto the surface of the collecting part; and B3) planting the fiber yarns to the collecting part by electrostatic charge of each of the fiber yarns.
A process for preparing a water-dispersible single-chain polymeric nanoparticle, which comprises cross-linking a polymer having a solubility equal to or higher than 100 mg per litre of water, and an amount of complementary reactive groups comprised from 5 to 60 molar % of the total amount of monomer units present in the polymer chain; with a homobifunctional crosslinking agent having crosslinkable groups; by (a) Adding an aqueous solution of the polymer to an aqueous solution of the homobifunctional crosslinking agent at an addition rate that allows having during the addition of the polymer a concentration of the crosslinkable groups of the polymer in the solution of the homobifunctional crosslinking agent comprised from 10 -3 to 10 -7 molar; or alternatively, (a') Adding an aqueous solution of the homobifunctional crosslinking agent to an aqueous solution of the polymer at an addition rate that allows having during the addition of the homobifunctional crosslinking agent a concentration of the homobifunctional crosslinking agent in the solution of the polymer comprised from 10 -3 to 10 -7 molar; at a temperature comprised from 20 to 25°C in the absence of a catalyst; wherein the water-dispersible single-chain polymeric nanoparticle has a particle size comprised from 3 to 30 nm and a polydispersion of the particle equal to the polydispersion of polymer ± 20%; optionally the process further comprises an additional step of purifying the water-dispersible single-chain polymeric nanoparticle, and optionally the process further comprises an additional step of drying the water-dispersible single-chain polymeric nanoparticle. (a) Adding an aqueous solution of the polymer to an aqueous solution of the homobifunctional crosslinking agent at an addition rate that allows having during the addition of the polymer a concentration of the crosslinkable groups of the polymer in the solution of the homobifunctional crosslinking agent comprised from 10 -3 to 10 -7 molar; or alternatively, (a') Adding an aqueous solution of the homobifunctional crosslinking agent to an aqueous solution of the polymer at an addition rate that allows having during the addition of the homobifunctional crosslinking agent a concentration of the homobifunctional crosslinking agent in the solution of the polymer comprised from 10 -3 to 10 -7 molar;