mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for facilitating processing within a computing environment, the computer-implemented method comprising: obtaining, by a processor of the computing environment, an instruction to perform a function of a plurality of functions supported by the instruction, the instruction comprising an operation code specifying an operation and being a single architected instruction of an instruction set architecture, the instruction complying to an industry standard for compression and the operation code being separate from an indication of the function to be performed; and executing the instruction, the executing including: performing the function specified by the instruction, wherein, based on the function being a compression function or a decompression function, the performing comprises, by a compress/decompress component of the processor, transforming state of input data between an uncompressed form of the input data and a compressed form of the input data to provide a transformed state of data; accessing, during performing the function, history relating to the function, the history to be used in transforming the state of the input data between the uncompressed form and the compressed form; and providing as output the transformed state of data to be used in performing a task. obtaining, by a processor of the computing environment, an instruction to perform a function of a plurality of functions supported by the instruction, the instruction comprising an operation code specifying an operation and being a single architected instruction of an instruction set architecture, the instruction complying to an industry standard for compression and the operation code being separate from an indication of the function to be performed; and executing the instruction, the executing including: performing the function specified by the instruction, wherein, based on the function being a compression function or a decompression function, the performing comprises, by a compress/decompress component of the processor, transforming state of input data between an uncompressed form of the input data and a compressed form of the input data to provide a transformed state of data; accessing, during performing the function, history relating to the function, the history to be used in transforming the state of the input data between the uncompressed form and the compressed form; and providing as output the transformed state of data to be used in performing a task. performing the function specified by the instruction, wherein, based on the function being a compression function or a decompression function, the performing comprises, by a compress/decompress component of the processor, transforming state of input data between an uncompressed form of the input data and a compressed form of the input data to provide a transformed state of data; accessing, during performing the function, history relating to the function, the history to be used in transforming the state of the input data between the uncompressed form and the compressed form; and providing as output the transformed state of data to be used in performing a task.
An Ethernet ring node in a ring with a ring protection protocol, the Ethernet ring node comprising: a first line card comprising a first port of the ring and a first ring protection protocol state machine; and a second line card comprising a second port of the ring and a second ring protection protocol state machine, wherein the first line card and the second line card are connected via a communication infrastructure; wherein the first ring protection protocol state machine and the second ring protection protocol state machine are synchronized as a common virtual state machine with respect to the Ethernet ring node, for node-level redundancy therein; and characterised in that each of the first ring protection protocol state machine and the second ring protection protocol state machine each operate according to ITU-T G.8032, and the node-level redundancy comprises one of the first ring protection protocol state machine and the second ring protection protocol state machine operating in response to a failure of the other ring protection protocol state machine and ITU-T G.8032 protection is performed over a backplane between the first line card and the second line card based on the failure, and wherein the first ring protection protocol state machine and the second ring protection protocol state machine are synchronized based on matching messages received from a virtual port, wherein the matching messages originate from a paired state machine. a first line card comprising a first port of the ring and a first ring protection protocol state machine; and a second line card comprising a second port of the ring and a second ring protection protocol state machine, wherein the first line card and the second line card are connected via a communication infrastructure; wherein the first ring protection protocol state machine and the second ring protection protocol state machine are synchronized as a common virtual state machine with respect to the Ethernet ring node, for node-level redundancy therein; and characterised in that each of the first ring protection protocol state machine and the second ring protection protocol state machine each operate according to ITU-T G.8032, and the node-level redundancy comprises one of the first ring protection protocol state machine and the second ring protection protocol state machine operating in response to a failure of the other ring protection protocol state machine and ITU-T G.8032 protection is performed over a backplane between the first line card and the second line card based on the failure, and wherein the first ring protection protocol state machine and the second ring protection protocol state machine are synchronized based on matching messages received from a virtual port, wherein the matching messages originate from a paired state machine.
A light emitting diode comprising: a support substrate; a reflective layer over the support substrate; an ohmic contact layer over the reflective layer; a light emitting semiconductor layer including a second conductivity type semiconductor layer, an active layer, and a first conductivity type semiconductor layer over the ohmic contact layer; a first passivation layer including a first portion, the first portion surrounding a lateral side of the light emitting semiconductor layer (502, 503, 504); and a second passivation layer surrounding lateral sides of the first passivation layer and the reflective layer, characterized in that the first passivation layer further includes a second portion, a portion of the second conductivity a portion of the second type semiconductor layer is partially exposed by the second portion of the first passivation layer, the second portion of the first passivation layer surrounds lateral sides of the ohmic contact layer, the ohmic contact layer is formed on the portion of the second conductivity type semiconductor layer, the reflective layer is under the second portion of the first passivation layer and the ohmic contact layer, the second portion of the first passivation layer is disposed between the reflective layer and the light emitting semiconductor layer. a support substrate; a reflective layer over the support substrate; an ohmic contact layer over the reflective layer; a light emitting semiconductor layer including a second conductivity type semiconductor layer, an active layer, and a first conductivity type semiconductor layer over the ohmic contact layer; a first passivation layer including a first portion, the first portion surrounding a lateral side of the light emitting semiconductor layer (502, 503, 504); and a second passivation layer surrounding lateral sides of the first passivation layer and the reflective layer, characterized in that the first passivation layer further includes a second portion, a portion of the second conductivity a portion of the second type semiconductor layer is partially exposed by the second portion of the first passivation layer, the second portion of the first passivation layer surrounds lateral sides of the ohmic contact layer, the ohmic contact layer is formed on the portion of the second conductivity type semiconductor layer, the reflective layer is under the second portion of the first passivation layer and the ohmic contact layer, the second portion of the first passivation layer is disposed between the reflective layer and the light emitting semiconductor layer.
A computer-implemented method, comprising: receiving, by at least one hardware processor, a binary software code; scanning, by the at least one hardware processor, the binary software code to determine that the binary software code comprises one or more network addresses to be accessed by the binary software code, wherein the scanning comprises identifying one or more text strings in the binary software code, and each of the one or more text strings corresponds to a network address of the one or more network addresses; for each of the one or more network addresses that are accessed by the binary software code: determining, by the at least one hardware processor and based on the text string that corresponds to the network address, whether the binary software code is coded to use an insecure network protocol to access the network address; and generating, by the at least one hardware processor, a security notification indicating the network address that is accessed by the binary software code using the insecure network protocol. receiving, by at least one hardware processor, a binary software code; scanning, by the at least one hardware processor, the binary software code to determine that the binary software code comprises one or more network addresses to be accessed by the binary software code, wherein the scanning comprises identifying one or more text strings in the binary software code, and each of the one or more text strings corresponds to a network address of the one or more network addresses; for each of the one or more network addresses that are accessed by the binary software code: determining, by the at least one hardware processor and based on the text string that corresponds to the network address, whether the binary software code is coded to use an insecure network protocol to access the network address; and generating, by the at least one hardware processor, a security notification indicating the network address that is accessed by the binary software code using the insecure network protocol.
A cutting set system for a meat grinder, comprising a drivable knife journal (10, 10') and cutting set elements mounted on the knife journal (10, 10'), - wherein the knife journal (10, 10') has a storage section for the cutting set elements mounted on the knife journal (10, 10'), - wherein a cutting set element has a central hub provided with a through bore for rotationally fixed mounting on the knife journal (10, 10'), wherein the cross-section of the knife journal (10, 10') is adapted to the cross-section of the through bore of the cutting set element, - wherein a plurality of partial circumferential surfaces (151, 152, 153, 154), form a circumferential surface of the knife journal (10, 10') and two parallel partial circumferential surfaces (152, 154) being present and interacting as drive surfaces with appropriately designed partial inner surfaces (231, 232, 233, 234) of the inner surface of the through bore of the cutting element during a rotational movement in a direction of rotation, characterised in that - one coordinated coding is present on the inner surface of the through bore of the cutting element and on the circumferential surface of the knife journal (10, 10'), - wherein the coding of the knife journal (10, 10') acts as a journal-side coding element (14, 14') between adjacent partial circumferential surfaces (151, 152) and, in a coordinated manner, engages with a coding element (24, 24') on the cutting element between two adjacent partial inner surfaces (231, 232). - wherein the knife journal (10, 10') has a storage section for the cutting set elements mounted on the knife journal (10, 10'), - wherein a cutting set element has a central hub provided with a through bore for rotationally fixed mounting on the knife journal (10, 10'), wherein the cross-section of the knife journal (10, 10') is adapted to the cross-section of the through bore of the cutting set element, - wherein a plurality of partial circumferential surfaces (151, 152, 153, 154), form a circumferential surface of the knife journal (10, 10') and two parallel partial circumferential surfaces (152, 154) being present and interacting as drive surfaces with appropriately designed partial inner surfaces (231, 232, 233, 234) of the inner surface of the through bore of the cutting element during a rotational movement in a direction of rotation, - one coordinated coding is present on the inner surface of the through bore of the cutting element and on the circumferential surface of the knife journal (10, 10'), - wherein the coding of the knife journal (10, 10') acts as a journal-side coding element (14, 14') between adjacent partial circumferential surfaces (151, 152) and, in a coordinated manner, engages with a coding element (24, 24') on the cutting element between two adjacent partial inner surfaces (231, 232).
A plug connector arrangement having a plug connector and a cable connected to the plug connector, which each have at least one conductor pair for the transmission of the differential signal, wherein the cable has a first section and the plug connector has a second section, in which the conductor pair has plug contacts, and wherein in the first section the conductors have a first mutual distance and in the second section, have a second mutual distance, which is larger than the first distance, wherein between the first section and the second section an intermediate section is formed, in which the distance of the conductors of a conductor pair increases in the direction of a plug-side end of the plug conductor, wherein the conductor pair in the first section is surrounded by a conductor pair shield, which shields the conductor pair against external electromagnetic influences, and characterized in that the conductors in at least one part of the intermediate section are each surrounded by a conductor shield, which shields the conductors against external electromagnetic influences and in each case against electromagnetic influences of the other conductor. wherein the cable has a first section and the plug connector has a second section, in which the conductor pair has plug contacts, and wherein in the first section the conductors have a first mutual distance and in the second section, have a second mutual distance, which is larger than the first distance, wherein between the first section and the second section an intermediate section is formed, in which the distance of the conductors of a conductor pair increases in the direction of a plug-side end of the plug conductor, wherein the conductor pair in the first section is surrounded by a conductor pair shield, which shields the conductor pair against external electromagnetic influences, and characterized in that the conductors in at least one part of the intermediate section are each surrounded by a conductor shield, which shields the conductors against external electromagnetic influences and in each case against electromagnetic influences of the other conductor.
Dispensing device for dispensing a pharmaceutical liquid in atomized form, comprising - a housing, - an air-guiding system with - at least one air inlet (36, 40), - a suction opening and - at least one channel (32, 38, 42), which connects the at least one air inlet to the suction opening, and - an atomizer, which is designed to atomize liquid in reaction to an electrical signal and to deliver the air flowing through the channel in atomized form, wherein - a sensor system (58, 62, 24, 26) is provided for detecting a suction process occurring at the suction opening, said sensor system having a sensor surface portion which, in reaction to the suction process, is deformed by an air stream caused by the suction process, wherein a sensor is provided for detecting this deformation of the sensor surface portion, characterized in that the air-guiding system has a main channel and a secondary channel, wherein a main part of at least 50% of the suctioned air flows along a flow path through the main channel and a secondary part of at most 20% of the suctioned air flows along a flow path through the secondary channel, and wherein the sensor surface portion is provided in the secondary channel and is arranged in such a way that a direction of flow of the main part on the sensor surface portion runs parallel to the plane of the sensor surface portion or encloses an angle of less than 20° with the plane of the sensor surface portion. - a housing, - an air-guiding system with - at least one air inlet (36, 40), - a suction opening and - at least one channel (32, 38, 42), which connects the at least one air inlet to the suction opening, and - at least one air inlet (36, 40), - a suction opening and - at least one channel (32, 38, 42), which connects the at least one air inlet to the suction opening, and - an atomizer, which is designed to atomize liquid in reaction to an electrical signal and to deliver the air flowing through the channel in atomized form, - a sensor system (58, 62, 24, 26) is provided for detecting a suction process occurring at the suction opening, said sensor system having a sensor surface portion which, in reaction to the suction process, is deformed by an air stream caused by the suction process, wherein a sensor is provided for detecting this deformation of the sensor surface portion,
A method of forming a cutting element, comprising: providing a supporting substrate formed by forming a precursor composition comprising discrete WC particles, a binding agent, and discrete particles comprising Co, Al, and one or more of C and W; and subjecting the precursor composition to a consolidation process to form a consolidated structure including WC particles dispersed in a homogenized binder comprising Co, Al, W, and C; depositing a powder comprising diamond particles directly on the supporting substrate; subjecting the supporting substrate and the powder to elevated temperatures greater than the solidus temperature and elevated pressures greater than or equal to about 2.0 GPa to diffuse a portion of the homogenized binder of the supporting substrate into the powder and inter-bond the diamond particles; and converting portions of the homogenized binder within interstitial spaces between the inter-bonded diamond particles into a thermally stable material comprising κ-carbide precipitates. providing a supporting substrate formed by forming a precursor composition comprising discrete WC particles, a binding agent, and discrete particles comprising Co, Al, and one or more of C and W; and subjecting the precursor composition to a consolidation process to form a consolidated structure including WC particles dispersed in a homogenized binder comprising Co, Al, W, and C; depositing a powder comprising diamond particles directly on the supporting substrate; subjecting the supporting substrate and the powder to elevated temperatures greater than the solidus temperature and elevated pressures greater than or equal to about 2.0 GPa to diffuse a portion of the homogenized binder of the supporting substrate into the powder and inter-bond the diamond particles; and converting portions of the homogenized binder within interstitial spaces between the inter-bonded diamond particles into a thermally stable material comprising κ-carbide precipitates.
A motor vehicle comprising: - a frame, which extends along a forward moving direction of the motor vehicle and has a rear portion, according to the forward moving direction, with a first and a second opening (6, 7, 8), which are oriented transversely to the forward moving direction, towards the outside of the motor vehicle; - a first rear window (9, 10), which is coupled to the frame in a movable manner between a first position, in which it closes the first opening (6, 7), and a second position, in which it at least partially frees the first opening (6, 7); - a second rear window, which is coupled to the frame in a movable manner so as to move between a third position, in which it closes the second opening, and a fourth position, in which it partially frees the second opening, thus creating a wind deflector to deflect an air flow directed along the forward moving direction from the outside towards the inside of the vehicle; and - a roof, which is coupled to the frame in a movable manner between a closed and an open configuration, in which it covers and uncovers, respectively, the inside of the motor vehicle from the top; characterized by further comprising - first driving means (ECU, 20), which are configured to automatically place the first and the second rear window (9, 10, 11) in the first and in the third position, respectively, when the roof is in the closed configuration and/or to place the first and the second rear window (9, 10, 11) in the second and in the fourth position, respectively, when the roof is in the open configuration. - a frame, which extends along a forward moving direction of the motor vehicle and has a rear portion, according to the forward moving direction, with a first and a second opening (6, 7, 8), which are oriented transversely to the forward moving direction, towards the outside of the motor vehicle; - a first rear window (9, 10), which is coupled to the frame in a movable manner between a first position, in which it closes the first opening (6, 7), and a second position, in which it at least partially frees the first opening (6, 7); - a second rear window, which is coupled to the frame in a movable manner so as to move between a third position, in which it closes the second opening, and a fourth position, in which it partially frees the second opening, thus creating a wind deflector to deflect an air flow directed along the forward moving direction from the outside towards the inside of the vehicle; and - a roof, which is coupled to the frame in a movable manner between a closed and an open configuration, in which it covers and uncovers, respectively, the inside of the motor vehicle from the top; characterized by further comprising - first driving means (ECU, 20), which are configured to automatically place the first and the second rear window (9, 10, 11) in the first and in the third position, respectively, when the roof is in the closed configuration and/or to place the first and the second rear window (9, 10, 11) in the second and in the fourth position, respectively, when the roof is in the open configuration.
Composition comprising linear low density polyethylene having a melt mass flow rate as determined using ASTM D-1238 (190°C/2.16kg) in the range from 4 to 125 g/10min or high density polyethylene having a melt mass flow rate as determined using ASTM D-1238 (190°C/2.16kg) in the range from 4 to 125 g/10min and polypropylene, wherein the amount of polypropylene is from 0.005 to 10wt% based on the total weight of the linear low density polyethylene or the high density polyethylene and the polypropylene, wherein the polypropylene has a melt temperature (T m) from 140°C to 200°C and/or a crystallization temperature (T c) from 100°C to 140°C, wherein the T m and T c are determined using Differential Scanning Calorimetry according to ASTM D 3418-08 using a scan rate of 10°C/min on a sample of 10mg and using the second heating cycle, wherein the composition comprises less than 0.05 ppm of nucleating or clarifying agents from the group of benzoic acid salts, substituted benzoic acid salts, dicarboxylate metal salts, hexahydrophthalic acid metal salts, phosphate ester salts, glycerolate salts, diamides, triamides, tetramides, pine rosin derivatives, di-acetal derivatives, 2,6-naphthalene dicarboxamides, polyvinylcyclohexanes, talc, pigments and combinations thereof..