mhurhangee/patent-ind-claim-en huggingface dataset:
A shielded combined optical communication and conductor cable comprising: a cable body including a first end, a second end, and an inner surface defining a channel within the cable body; an optical transmission element located within the channel; an electrical conducting element located within the channel; and an electromagnetic shield located within the channel and surrounding both the optical transmission element and the electrical conducting element , characterised in that the electromagnetic shield comprises a first elongate yarn strand extending at least a portion of the distance between the first end and the second end of the cable body , wherein the first yarn strand supports a metal material that acts to limit electromagnetic fields from traversing the across the electromagnetic shield; wherein the first elongate yarn strand is helically wrapped around the optical transmission element and the electrical conducting element such that a helix angle of the helically wrapped first elongate yarn strand varies along a longitudinal axis of the cable; wherein the electromagnetic shield includes a second elongate yarn strand and a third elongate yarn strand , wherein the second and third elongate yarn strands support a metal material that acts to limit electromagnetic fields from traversing the across the electromagnetic shield, wherein the second and third elongate yarn strands are unwrapped strands that extend longitudinally between the first and second ends of the cable body . a cable body including a first end, a second end, and an inner surface defining a channel within the cable body; an optical transmission element located within the channel; an electrical conducting element located within the channel; and an electromagnetic shield located within the channel and surrounding both the optical transmission element and the electrical conducting element , characterised in that the electromagnetic shield comprises a first elongate yarn strand extending at least a portion of the distance between the first end and the second end of the cable body , wherein the first yarn strand supports a metal material that acts to limit electromagnetic fields from traversing the across the electromagnetic shield; wherein the first elongate yarn strand is helically wrapped around the optical transmission element and the electrical conducting element such that a helix angle of the helically wrapped first elongate yarn strand varies along a longitudinal axis of the cable; wherein the electromagnetic shield includes a second elongate yarn strand and a third elongate yarn strand , wherein the second and third elongate yarn strands support a metal material that acts to limit electromagnetic fields from traversing the across the electromagnetic shield, wherein the second and third elongate yarn strands are unwrapped strands that extend longitudinally between the first and second ends of the cable body .
An apparatus for filtering an electrical power signal in an Ethernet communication system , the apparatus comprising: a link interface, configured to connect to an Ethernet link; a power interface, configured to connect to one or both of (i) a power-supply that supplies the electrical power signal for transfer over the Ethernet link, and (ii) a circuit that consumes the electrical power signal transferred over the Ethernet link; and a filter , which is connected between the link interface and the power interface, the filter comprising at least: a primary inductor (L 1 ), configured to filter the electrical power signal transferred to or from the Ethernet link; one or more complementary inductors (L 2 , L 3 ) connected in series with the primary inductor (L 1 ), the one or more complementary inductors (L 2 , L 3 ) configured to reduce a parasitic capacitance of the filter ; and characterized by a resistor (R p ), which is connected in parallel with the primary inductor (L 1 ), or in parallel with one of the complementary inductors (L 2 , L 3 ), the resistor (R p ) configured to suppress resonance effects in the filter . a link interface, configured to connect to an Ethernet link; a power interface, configured to connect to one or both of (i) a power-supply that supplies the electrical power signal for transfer over the Ethernet link, and (ii) a circuit that consumes the electrical power signal transferred over the Ethernet link; and a filter , which is connected between the link interface and the power interface, the filter comprising at least: a primary inductor (L 1 ), configured to filter the electrical power signal transferred to or from the Ethernet link; one or more complementary inductors (L 2 , L 3 ) connected in series with the primary inductor (L 1 ), the one or more complementary inductors (L 2 , L 3 ) configured to reduce a parasitic capacitance of the filter ; and characterized by a resistor (R p ), which is connected in parallel with the primary inductor (L 1 ), or in parallel with one of the complementary inductors (L 2 , L 3 ), the resistor (R p ) configured to suppress resonance effects in the filter . a primary inductor (L 1 ), configured to filter the electrical power signal transferred to or from the Ethernet link; one or more complementary inductors (L 2 , L 3 ) connected in series with the primary inductor (L 1 ), the one or more complementary inductors (L 2 , L 3 ) configured to reduce a parasitic capacitance of the filter ; and characterized by a resistor (R p ), which is connected in parallel with the primary inductor (L 1 ), or in parallel with one of the complementary inductors (L 2 , L 3 ), the resistor (R p ) configured to suppress resonance effects in the filter .
Bed for a person , in particular a wellness bed, comprising a vapour-permeable bed surface , wherein a steam chamber is provided beneath the bed surface , and wherein the bed for a person includes an air humidification device comprising a water supply device , a heating element for generating steam and a steam outlet for discharging the generated steam into the steam chamber , wherein a reservoir for receiving a drug is provided in the steam outlet or directly after the steam outlet in the direction of flow of the steam, and wherein the bed for a person is characterised in that a reversibly adjustable lamella structure for controlling the passage of steam from the steam chamber to the bed surface is arranged between the steam chamber and the bed surface , wherein the lamella structure has tiltable lamellas . wherein a reservoir for receiving a drug is provided in the steam outlet or directly after the steam outlet in the direction of flow of the steam, and wherein the bed for a person is characterised in that a reversibly adjustable lamella structure for controlling the passage of steam from the steam chamber to the bed surface is arranged between the steam chamber and the bed surface , wherein the lamella structure has tiltable lamellas .
Gate closer, suited to be retrofitted onto a gate which is hingedly suspended on a side of a support by means of an eyebolt hinge , wherein said eyebolt hinge comprises a hinge element mounted to said side of the support , a hinge pin arranged on said hinge element and an eyebolt , said eyebolt having an eye portion that is hinged onto said hinge element about said hinge pin according to a hinge axis , and a bolt portion extending through a fastening member on the gate projecting from said side of the gate , wherein the bolt portion of the eyebolt has a projecting portion having a free end and projecting at the side of the fastening member facing away from said hinge pin over a distance from the fastening member of the gate , and wherein said fastening member is clamped between two adjustment nuts on the bolt portion of the eyebolt , which adjustment nuts are arranged to adjust the distance over which the bolt portion of the eyebolt projects, and thus the distance between the gate and the support , said gate closer comprising a body , an actuating arm which is mounted rotatably according to a first rotational axis onto said body , an actuator in said body for actuating the rotating actuating arm and a coupling mechanism for coupling the actuating arm to the bolt portion of the eyebolt , wherein the body of the gate closer is configured to be mounted below said eyebolt hinge onto said support with said first rotational axis substantially parallel to said hinge axis , characterized in that said coupling mechanism comprises an inner sleeve arranged to be screwed over the free end of the bolt portion of the eyebolt onto the projecting portion of said bolt portion , and an outer sleeve which is mounted onto the inner sleeve so as to be slidable back and forth in the longitudinal direction of the bolt portion of the eyebolt , and which is mounted rotatably about a second rotational axis , which is parallel to said first rotational axis , onto the actuating arm . said gate closer comprising a body , an actuating arm which is mounted rotatably according to a first rotational axis onto said body , an actuator in said body for actuating the rotating actuating arm and a coupling mechanism for coupling the actuating arm to the bolt portion of the eyebolt , wherein the body of the gate closer is configured to be mounted below said eyebolt hinge onto said support with said first rotational axis substantially parallel to said hinge axis , characterized in that said coupling mechanism comprises an inner sleeve arranged to be screwed over the free end of the bolt portion of the eyebolt onto the projecting portion of said bolt portion , and an outer sleeve which is mounted onto the inner sleeve so as to be slidable back and forth in the longitudinal direction of the bolt portion of the eyebolt , and which is mounted rotatably about a second rotational axis , which is parallel to said first rotational axis , onto the actuating arm .
A method of forming a gate, the method comprising: (a) providing a base of a first base material , said base having a gate area ; (b) adding a layer of a second material to said base in the gate area by an additive manufacturing process to form a metallurgical bond, wherein said second material has a characteristic that differentiates the second material from the first base material; the method being characterized by : (c) adding an interstitial layer of material between said base and said layer of said second material, wherein the material of the interstitial layer has a coefficient of thermal expansion that is in between the coefficients of thermal expansion of the first base material and the material of the second material layer ; and (d) modifying an inner surface in said gate area comprised of said second material to define the gate . (a) providing a base of a first base material , said base having a gate area ; (b) adding a layer of a second material to said base in the gate area by an additive manufacturing process to form a metallurgical bond, wherein said second material has a characteristic that differentiates the second material from the first base material; (c) adding an interstitial layer of material between said base and said layer of said second material, wherein the material of the interstitial layer has a coefficient of thermal expansion that is in between the coefficients of thermal expansion of the first base material and the material of the second material layer ; and (d) modifying an inner surface in said gate area comprised of said second material to define the gate .
Electric installation device , such as a switch or button, for mounting in an installation opening along a mounting direction (M), having at least one base part with at least one receptacle in which a contact housing is arranged, wherein the contact housing has a clamping spring to allow at least one electrical wire to be clamped in, wherein a pivotable release lever is arranged outside an outer wall of the base part that extends parallel to the mounting direction (M) in the region of the receptable , wherein, in a basic position of the release lever , an electrical line introduced into the contact housing is fixed by the clamping spring of the contact housing , wherein, in a release position of the release lever , the clamping spring is actuated and frees the electrical wire, wherein the release lever has a plug on an underside which faces the outer wall of the base part , wherein a cutout in the outer wall is arranged in the region of the plug , wherein the plug , the cutout , the contact housing and the clamping spring are arranged in such a way that, in the released position of the release lever , the plug actuates the clamping spring of the contact housing through the cutout to free the electrical wire, characterized in that the release lever and the base part are formed in one piece, and the plug has a latching extension projecting from the plug , wherein, in the basic position without an electrical wire introduced, the latching extension is situated within the base part and is in latching operative connection with a part of the edge of the outer wall in the region of the cutout , wherein the operative connection prevents the latching extension from coming out of the base part .
Wind turbine comprising: an electric generator having a stator and a rotor and extending along a longitudinal axis (Y) between a non-drive end and an opposite drive end , a cooling circuit for cooling the electric generator , wherein the electric generator comprises an housing having at least a first plate at the non-drive end for separating an inside of the electric generator from an ambient environment, the cooling circuit including at least one first inlet on the first plate for letting air from the ambient environment to enter the inside of the electric generator , characterized in that the at least one first inlet is provided with a respective filter for controlling the quality of air entering the electric generator through the at least one first inlet . an electric generator having a stator and a rotor and extending along a longitudinal axis (Y) between a non-drive end and an opposite drive end , a cooling circuit for cooling the electric generator , wherein the electric generator comprises an housing having at least a first plate at the non-drive end for separating an inside of the electric generator from an ambient environment, the cooling circuit including at least one first inlet on the first plate for letting air from the ambient environment to enter the inside of the electric generator , characterized in that the at least one first inlet is provided with a respective filter for controlling the quality of air entering the electric generator through the at least one first inlet .
A method for enabling an efficient and reliable manner for transfer of data via a network, said method comprising, at an apparatus: receiving a request for data from a device ; enabling provision of information to a network stack , the information comprising content indicating a location of the requested data for direct access by the network stack and wherein the content indicating the location comprises data denoting that the location corresponds to a frame buffer associated with a display driver , in response to receipt of the request; and enabling, via a processor , provision of the requested data to a network driver , or enabling the network driver to retrieve the requested data, based at least in part on the indicated location of the requested data. receiving a request for data from a device ; enabling provision of information to a network stack , the information comprising content indicating a location of the requested data for direct access by the network stack and wherein the content indicating the location comprises data denoting that the location corresponds to a frame buffer associated with a display driver , in response to receipt of the request; and enabling, via a processor , provision of the requested data to a network driver , or enabling the network driver to retrieve the requested data, based at least in part on the indicated location of the requested data.
A light emitting diode module comprising: a light source device , said light source device comprising a remote phosphor element ; a cover for said light source device , the cover being arranged to connect to an optical device ; characterized in that said cover comprises a heat conducting part which has an at least one order of magnitude higher thermal conductivity than the remaining part of the cover and which is arranged to thermally connect said light source device with said optical device ; and wherein said heat conducting part is arranged to thermally connect said remote phosphor element with said optical device . a light source device , said light source device comprising a remote phosphor element ; a cover for said light source device , the cover being arranged to connect to an optical device ; characterized in that said cover comprises a heat conducting part which has an at least one order of magnitude higher thermal conductivity than the remaining part of the cover and which is arranged to thermally connect said light source device with said optical device ; and wherein said heat conducting part is arranged to thermally connect said remote phosphor element with said optical device .
An inline shower device, comprising: a housing including an outlet port ; a hydraulic chamber disposed within the housing ; a first actuator configured to connect a capsule to the housing and fluidly connect the capsule to the hydraulic chamber ; and a fluid-driven piston disposed within the hydraulic chamber , the fluid-driven piston configured to dispense a fluid from the capsule into the outlet port , characterized in that a position of the fluid-driven piston is controlled by selectively applying fluid pressure to a first side and a second side of the fluid-driven piston . a housing including an outlet port ; a hydraulic chamber disposed within the housing ; a first actuator configured to connect a capsule to the housing and fluidly connect the capsule to the hydraulic chamber ; and a fluid-driven piston disposed within the hydraulic chamber , the fluid-driven piston configured to dispense a fluid from the capsule into the outlet port , characterized in that a position of the fluid-driven piston is controlled by selectively applying fluid pressure to a first side and a second side of the fluid-driven piston .
A system for providing differentiated classes of storage, comprising a storage device having a plurality of storage locations and a logical block name space for organizing logical block names of the storage locations within the storage device , a performance process configured to measure a level of performance for the plurality of storage locations, and for dividing the plurality of storage locations for the storage device into a plurality of sections as determined by the different levels of measured performance, the system characterised by : a mapping process configured to map the divided sections of the storage locations, aggregate the logical block names of storage locations in the divided sections having an identical level of performance (Performance A, B, C) to a selected section of the logical block name space, and a performance measurement process configured to scan storage locations of the storage device and determine the different levels of performance for the storage locations, specifically wherein the performance measurement process performs experimental read and write operations to determine the different levels of measured performance from experimental data collected in the read and write operations; and a RAID controller, for assigning a first RAID level configuration to a first set of aggregated logical block names of the storage device , and assigning a second RAID level configuration to a second set of aggregated logical block names of the storage device , the first and second RAID level configurations being different from each other thereby providing differentiated classes of storage having two or more differentiated RAID level configurations of the same storage device to one or more clients accessing the system, based on measured performance data. a mapping process configured to map the divided sections of the storage locations, aggregate the logical block names of storage locations in the divided sections having an identical level of performance (Performance A, B, C) to a selected section of the logical block name space, and a performance measurement process configured to scan storage locations of the storage device and determine the different levels of performance for the storage locations, specifically wherein the performance measurement process performs experimental read and write operations to determine the different levels of measured performance from experimental data collected in the read and write operations; and a RAID controller, for assigning a first RAID level configuration to a first set of aggregated logical block names of the storage device , and assigning a second RAID level configuration to a second set of aggregated logical block names of the storage device , the first and second RAID level configurations being different from each other thereby providing differentiated classes of storage having two or more differentiated RAID level configurations of the same storage device to one or more clients accessing the system, based on measured performance data.
A composition for Si x O y Z z growth with reduced etchback properties comprising: (A) an iodine compound comprising HIO 3 ; (B) a first acid comprising HF; (C) a second, non-oxidizing, acid comprising HCl; and (D) water, wherein the composition comprises A weight percent of the iodine compound (A), B weight percent of the first acid (B), C weight percent of the second, non-oxidizing, acid (C), and D weight percent water, wherein the sum of A, B, C, and D is 100, wherein the iodine compound (A) is present in the range of about 0.01 weight percent to about 0.4 weight percent, wherein the first acid (B) is present in the range of about 0.1 weight percent to about 10 weight percent, wherein the second, non-oxidizing, acid (C) is present in the range of about 1 weight percent to about 50 weight percent, and D is the balance. (A) an iodine compound comprising HIO 3 ; (B) a first acid comprising HF; (C) a second, non-oxidizing, acid comprising HCl; and (D) water,
N-acylglucamide compound of the formula (I) where R 2 is a linear or branched alkyl group or an aryl group; X is a moiety R 1 , which is a linear or branched alkyl group comprising 8 to 18, carbon atoms, which is substituted by one hydroxy group preferably in beta- or omega-position; or X is a moiety R 1 , which is a linear or branched, mono- or polyunsaturated alkenyl group comprising 8 to 18 carbon atoms, which is substituted by one hydroxy group preferably in beta- or omega-position. R 2 is a linear or branched alkyl group or an aryl group; X is a moiety R 1 , which is a linear or branched alkyl group comprising 8 to 18, carbon atoms, which is substituted by one hydroxy group preferably in beta- or omega-position; or X is a moiety R 1 , which is a linear or branched, mono- or polyunsaturated alkenyl group comprising 8 to 18 carbon atoms, which is substituted by one hydroxy group preferably in beta- or omega-position.