mhurhangee/ep-ind-claims huggingface dataset:
A data center network comprising: at least one core router (265, 270) in a core layer, a plurality of aggregation nodes (245, 260) and at least one OLT, optical line terminal, in an aggregation layer, each of the plurality of aggregation nodes (245, 260) and the at least one OLT being in direct communication with the at least one core router (265, 270) in the core layer, wherein, the at least one OLT is coupled to at least one of the plurality of aggregation nodes, and a plurality of access nodes in an access layer, each of the plurality of access nodes being in communication with at least one of the plurality of aggregation nodes and the at least one OLT, wherein the at least one OLT is adapted to form a backup node in the aggregation layer, and wherein the at least one OLT is configured to perform layer 2 switching for aggregating data traffic between the access layer and the core layer of the data center network upon a communication failure of one of the plurality of aggregation nodes. at least one core router (265, 270) in a core layer, a plurality of aggregation nodes (245, 260) and at least one OLT, optical line terminal, in an aggregation layer, each of the plurality of aggregation nodes (245, 260) and the at least one OLT being in direct communication with the at least one core router (265, 270) in the core layer, wherein, the at least one OLT is coupled to at least one of the plurality of aggregation nodes, and a plurality of access nodes in an access layer, each of the plurality of access nodes being in communication with at least one of the plurality of aggregation nodes and the at least one OLT, wherein the at least one OLT is adapted to form a backup node in the aggregation layer, and wherein the at least one OLT is configured to perform layer 2 switching for aggregating data traffic between the access layer and the core layer of the data center network upon a communication failure of one of the plurality of aggregation nodes. wherein the at least one OLT is adapted to form a backup node in the aggregation layer, and wherein the at least one OLT is configured to perform layer 2 switching for aggregating data traffic between the access layer and the core layer of the data center network upon a communication failure of one of the plurality of aggregation nodes.
A mobile radio network device, in particular according to the GSM and UMTS standard, comprising: a) a central computer and switching unit, wherein the computer and switching unit can especially transmit voice, text, image or binary data between two communication partners (12, 24a-24e) via the mobile radio network of the mobile radio network device, b) sending and receiving devices, characterized in that c) conversion means are provided in the central computer and switching unit, which conversion means are designed to convert different text formats of texts (10a-10f) to be transmitted into a standard text format (22a-22e) that can be processed by each mobile terminal (24a-24e) by converting the corresponding text control characters of the text formats and d) the central computer and switching unit is designed for passing the texts in the standard format (22a-22e) on to the mobile terminals. a) a central computer and switching unit, wherein the computer and switching unit can especially transmit voice, text, image or binary data between two communication partners (12, 24a-24e) via the mobile radio network of the mobile radio network device, b) sending and receiving devices, c) conversion means are provided in the central computer and switching unit, which conversion means are designed to convert different text formats of texts (10a-10f) to be transmitted into a standard text format (22a-22e) that can be processed by each mobile terminal (24a-24e) by converting the corresponding text control characters of the text formats and d) the central computer and switching unit is designed for passing the texts in the standard format (22a-22e) on to the mobile terminals.
foundation (100, 200, 300, 400, 500) for an offshore structure, in particular an offshore wind power structure, comprising: - at least one tower-shaped foundation structure (104, 204, 304, 404, 504) with a circumferential foundation wall (105, 205, 305, 405, 505) extending in the longitudinal direction, the foundation wall (105, 205, 305, 405, 505) being bounded on the underside by an underside end face (106, 206, 306, 406, 506), - wherein the foundation wall (105, 205, 305, 405, 505) is formed from a mineral building material, - wherein the foundation (100, 200, 300, 400, 500) comprises - at least one binding element (114, 214, 314, 414, 514) formed of a metallic material and arranged on the underside end face (106, 206, 306, 406, 506), characterized in that - the length of the binding element (114, 214, 314, 414, 514) from the underside end face (106, 206, 306, 406, 506) to a lower end (134, 234, 334, 434, 534) of the binding element (114, 214, 314, 414, 514) is at least 0.5 m, - wherein the tie-in member (114, 214, 314, 414, 514) comprises a longitudinally extending circumferential tie-in wall (138, 238, 338, 438, 538) and the cross-sectional shape of the tie-in member (114, 214, 314, 414, 514) corresponds to the cross-sectional shape of the foundation wall. - at least one tower-shaped foundation structure (104, 204, 304, 404, 504) with a circumferential foundation wall (105, 205, 305, 405, 505) extending in the longitudinal direction, the foundation wall (105, 205, 305, 405, 505) being bounded on the underside by an underside end face (106, 206, 306, 406, 506), - wherein the foundation wall (105, 205, 305, 405, 505) is formed from a mineral building material, - wherein the foundation (100, 200, 300, 400, 500) comprises - at least one binding element (114, 214, 314, 414, 514) formed of a metallic material and arranged on the underside end face (106, 206, 306, 406, 506), characterized in that - the length of the binding element (114, 214, 314, 414, 514) from the underside end face (106, 206, 306, 406, 506) to a lower end (134, 234, 334, 434, 534) of the binding element (114, 214, 314, 414, 514) is at least 0.5 m, - wherein the tie-in member (114, 214, 314, 414, 514) comprises a longitudinally extending circumferential tie-in wall (138, 238, 338, 438, 538) and the cross-sectional shape of the tie-in member (114, 214, 314, 414, 514) corresponds to the cross-sectional shape of the foundation wall.
System for transforming plastic parisons into plastic containers with at least one transforming station which is situated on a movable support and which has a blow mould within which the plastic parisons can be expanded by application of a gaseous medium, wherein the blow mould has a base part which is disposed releasably on a support, and with a first fastening mechanism in order to fasten the base part to the support, and/or wherein the blow mould has at least one side part (52a, 52b) which is disposed releasably on a support (46a, 46b) and with a second fastening mechanism in order to fasten the side part (52a, 52b) to the support (46a, 46b), characterized in that the system has an actuating device wherein the actuating device is able to be connected to the system in order to release at least the base part and/or the side part (52a, 52b), and the transforming station is designed to be movable in at least one direction of movement of the support relative to this actuating device, wherein at least one element of the actuating device is suitable and intended for producing a connection by positive and/or non-positive engagement to at least one element of the transforming station and wherein the system has a positioning device (104, 106) in order to position the transforming station relative to the actuating device.
A lifting floor for use in a body of water, the lifting floor comprising: (a) a plurality of adjacent float modules, each float module comprising a plurality of flexible joints disposed on respective corners of the float module, each flexible joint attached to a link retainer formed into the corner of each module and held in place with metal rods, each float module flexibly attached to an adjacent float module by means of the flexible joints, each float module comprising a hull comprising a plurality of downwardly extending side walls, a top wall connected to the plurality of downwardly extending side walls, a bottom connected to the plurality of downwardly extending side walls and a buoyancy compartment disposed within the hull; (b) each float module further comprising at least one container disposed within the float module, the container configured to retain a buoyancy fluid having a density less than that of water; and (c) a discharger apparatus comprising a controller capable of being programmed to discharge buoyancy fluid to the buoyancy compartments in different modules at different time intervals so as to fill the buoyancy compartments of some or all of the float modules with buoyancy fluid, thereby causing the plurality of float modules to float to a position at or near the surface of the body of water. (a) a plurality of adjacent float modules, each float module comprising a plurality of flexible joints disposed on respective corners of the float module, each flexible joint attached to a link retainer formed into the corner of each module and held in place with metal rods, each float module flexibly attached to an adjacent float module by means of the flexible joints, each float module comprising a hull comprising a plurality of downwardly extending side walls, a top wall connected to the plurality of downwardly extending side walls, a bottom connected to the plurality of downwardly extending side walls and a buoyancy compartment disposed within the hull; (b) each float module further comprising at least one container disposed within the float module, the container configured to retain a buoyancy fluid having a density less than that of water; and (c) a discharger apparatus comprising a controller capable of being programmed to discharge buoyancy fluid to the buoyancy compartments in different modules at different time intervals so as to fill the buoyancy compartments of some or all of the float modules with buoyancy fluid, thereby causing the plurality of float modules to float to a position at or near the surface of the body of water.
An intraocular lens (1, 101) including an optical part and a haptic part (3, 103), the intraocular lens (1, 101) having, at each transition between said optical part and said haptic part (3, 103), two notches (7a, 8a, 14, 15, 122, 123), said two notches (7a, 8a, 14, 15, 122, 123) being respectively positioned on either side of said transition, each notch (7a, 8a, 14, 15, 122, 123) extending along the edge of said haptic part (3, 103), characterized in that each notch (7a, 8a, 14, 15, 122, 123) encroaches on the periphery of said optical part.
A multi-lens system configured to be selectively attachable to a mobile electronic device having a user-facing onboard camera lens and an outward-facing onboard camera lens, the multi-lens system comprising: a retainer portion and at least first and second lens mounting portions (505, 555); a first lens component mounted to or configured to be mounted to the first lens mounting portion; and a second lens component mounted to or configured to be mounted to the second lens mounting portion; wherein the multi-lens system is configured to be selectively attachable to the mobile electronic device in at least a first position and a second position, wherein in the first position the first lens component is configured to be in optical alignment with the user-facing onboard camera lens and simultaneously the second lens component is configured to be in optical alignment with the outward-facing onboard camera lens, wherein in the second position the first lens component is configured to be in optical alignment with the outward-facing onboard camera lens and simultaneously the second lens component is configured to be in optical alignment with the user-facing onboard camera lens; wherein the first and second lens components (500, 550) each comprise optical axes that are generally parallel to each other when mounted to the lens mounting portions (505, 555), and wherein the optical axis of the first lens component is spaced away from the optical axis of the second lens component. a retainer portion and at least first and second lens mounting portions (505, 555); a first lens component mounted to or configured to be mounted to the first lens mounting portion; and a second lens component mounted to or configured to be mounted to the second lens mounting portion; wherein the multi-lens system is configured to be selectively attachable to the mobile electronic device in at least a first position and a second position, wherein in the first position the first lens component is configured to be in optical alignment with the user-facing onboard camera lens and simultaneously the second lens component is configured to be in optical alignment with the outward-facing onboard camera lens, wherein in the second position the first lens component is configured to be in optical alignment with the outward-facing onboard camera lens and simultaneously the second lens component is configured to be in optical alignment with the user-facing onboard camera lens; wherein the first and second lens components (500, 550) each comprise optical axes that are generally parallel to each other when mounted to the lens mounting portions (505, 555), and wherein the optical axis of the first lens component is spaced away from the optical axis of the second lens component.
A wet paper web transfer belt in which a reinforcing base material comprising a wet paper web-side surface and a machine-side surface and a thermosetting polyurethane are integrated with each other, at least the wet paper web-side surface of the reinforcing base material is embedded in the polyurethane, and an outer circumferential layer comprising a wet paper web contacting surface is constituted by some of the polyurethane; wherein at least the outer circumferential layer comprises two different types of fillers including a high-roundness filler with a relatively high roundness and a low-roundness filler with a relatively low roundness, the difference in roundness between the high-roundness filler and the low-roundness filler is 0.1 or more, wherein the roundness of a filler particle is expressed by formula: X = A / B = A / πr 2 = A / πx C / 2 π 2 = Ax 4 π / C 2 wherein A and C are respectively a particle projected area and a perimeter measured on an image of the filler particle taken by an electron microscope, B is an area of a perfect circle corresponding to the perimeter C, r is a particle radius, and n is a circular constant, characterized in that the roundness of the high-roundness filler is 0.6 or more and the roundness of the low-roundness filler is less than 0.6.
A polymeric drinking container composed of polymeric material having a specific gravity, the polymeric drinking container simulating a glass drinking container in weight and liquid capacity IV G, IV P, the glass drinking container composed of a glass drinking container volume ΔV G of glass material and the polymeric drinking container comprising: a base composed of the polymeric material; and an enclosing wall composed of the polymeric material, the enclosing wall formed with the base, extending from the base and defining an opening opposite the base, wherein the base and enclosing wall are composed of a polymeric drinking container volume ΔV P of the polymeric material that is equal to the glass drinking container volume ΔV G plus an added amount ΔV PA where the added amount ΔV PA is equal to an ideal volume of polymer to be added ΔV PE multiplied by a multiplier M, the ideal volume of polymer to be added ΔV PE is equal to the glass drinking container volume ΔV G multiplied by the ratio of specific gravity of the glass to the specific gravity of the polymeric material and the multiplier M is in the range 0.7 to 1.3. a base composed of the polymeric material; and an enclosing wall composed of the polymeric material, the enclosing wall formed with the base, extending from the base and defining an opening opposite the base, wherein the base and enclosing wall are composed of a polymeric drinking container volume ΔV P of the polymeric material that is equal to the glass drinking container volume ΔV G plus an added amount ΔV PA where the added amount ΔV PA is equal to an ideal volume of polymer to be added ΔV PE multiplied by a multiplier M, the ideal volume of polymer to be added ΔV PE is equal to the glass drinking container volume ΔV G multiplied by the ratio of specific gravity of the glass to the specific gravity of the polymeric material and the multiplier M is in the range 0.7 to 1.3.
A method implementable in a weather-radar system of an aircraft, the weather-radar system configured to generate and present an image in a first presentation format on a display device in response to radar return information indicating reflectivity levels below a predetermined reflectivity threshold, the method comprising: determining if the altitude of the aircraft is above a predetermined threshold altitude; and if the altitude of the aircraft is above the threshold altitude, then displaying, in response to radar return information indicating reflectivity levels below the predetermined reflectivity threshold, the image on the display device in a second presentation format different from the first presentation format. determining if the altitude of the aircraft is above a predetermined threshold altitude; and if the altitude of the aircraft is above the threshold altitude, then displaying, in response to radar return information indicating reflectivity levels below the predetermined reflectivity threshold, the image on the display device in a second presentation format different from the first presentation format.
A method of controlling a first elevator system comprising a first elevator car, the method comprising: receiving a first elevator call from a first robot for the first elevator system to transport the first robot from a first elevator bank on a landing to a destination landing; and adjusting operation of at least one of the first robot and the first elevator system, characterized in that the first elevator call comprises a first call code and the method further comprises: receiving a second elevator call from an individual, the second elevator call comprising second call code; determining that the second call code is prioritized over the first call code; and instructing the first elevator car to move to the landing and pick up the individual. receiving a first elevator call from a first robot for the first elevator system to transport the first robot from a first elevator bank on a landing to a destination landing; and adjusting operation of at least one of the first robot and the first elevator system, characterized in that the first elevator call comprises a first call code and the method further comprises: receiving a second elevator call from an individual, the second elevator call comprising second call code; determining that the second call code is prioritized over the first call code; and instructing the first elevator car to move to the landing and pick up the individual. receiving a second elevator call from an individual, the second elevator call comprising second call code; determining that the second call code is prioritized over the first call code; and instructing the first elevator car to move to the landing and pick up the individual.
Gas insufflation device comprising a trocar, which includes a tubular trocar sleeve, which is fixed to a trocar body, and a trocar pin having a circular cross section, which is insertable through the trocar body into the trocar sleeve, characterized in that the inner cross section of the trocar sleeve for forming a flow duct formed for conducting of gas, is designed in a at least geometrically different manner from the circular outer cross section of the trocar pin, i.e. not round, and that the trocar pin is provided with an insertion end at its distal end portion, which is designed in a cross section adapted to the non-round inner cross section of the trocar sleeve, in order to cover or to seal the at least one flow duct during the introduction operation of the trocar.
Radially expandable vascular support, which has a plurality of meandering ring elements (2, 3) which are flexibly connected to one another and are composed of webs and which define a vascular support with a proximal and a distal end and a longitudinal axis, the ring elements (2, 3) being arranged next to one another along the longitudinal axis of the vascular support and adjoining ring elements (2, 3) being connected to one another by connecting elements, at least two adjoining ring elements (2, 3) being connected to one another by connecting elements, 3) are arranged next to one another along the longitudinal axis of the vascular support and adjoining ring elements (2, 3) are connected to one another by connecting elements, connecting elements being arranged between at least two adjoining ring elements (2, 3), each of which has at least one expandable widening element with a predetermined breaking point, wherein the expansion is possible in the longitudinal and/or transverse direction and the predetermined breaking points only break after overstretching of the expansion element beyond its maximum expansion point, characterised in that the webs of at least one ring element (2, 3) in each case are arranged in the connecting element similarly to a two-dimensional joint connection with a joint ball and a joint socket and are connected to the connecting element via a predetermined breaking point and the breaking of the predetermined breaking point is brought about via a lever in the connecting element.