mhurhangee/ep-ind-claims huggingface dataset:
A method executed in a computing device to provide a passive monitoring system employing a logging schema to track requests at a service, the method comprising: detecting a request received by the service; creating a logging entry for the request at a data store associated with the service determining whether the request is fulfilled by the service, wherein fulfilling a request comprises receiving and processing the request at a subsystem of the service, wherein the subsystem performs an operation to fulfill the request; in response to a determination that the request is fulfilled, classifying the request as a success in a success bucket; in response to a determination that the request is not fulfilled, classifying the request as a detected error in an error bucket, wherein the error bucket denotes a defined failure scenario; wherein, when an error is first detected, the error is classified into an initial uncategorized bucket until the error type is determined; wherein, upon determination of the error type, the error is classified into a labeled bucket according to the error type and, subsequently, the detected error is classified into pre-existing buckets based on the error type; the method further comprising using the recorded errors to generate performance and reliability reports for the service; wherein the reliability of the service is determined based on a percentage of success buckets and error buckets. detecting a request received by the service; creating a logging entry for the request at a data store associated with the service determining whether the request is fulfilled by the service, wherein fulfilling a request comprises receiving and processing the request at a subsystem of the service, wherein the subsystem performs an operation to fulfill the request; in response to a determination that the request is fulfilled, classifying the request as a success in a success bucket; in response to a determination that the request is not fulfilled, classifying the request as a detected error in an error bucket, wherein the error bucket denotes a defined failure scenario; wherein, when an error is first detected, the error is classified into an initial uncategorized bucket until the error type is determined; wherein, upon determination of the error type, the error is classified into a labeled bucket according to the error type and, subsequently, the detected error is classified into pre-existing buckets based on the error type; the method further comprising using the recorded errors to generate performance and reliability reports for the service; wherein the reliability of the service is determined based on a percentage of success buckets and error buckets.
A compound comprising a reaction product of one or more guanidine compounds or salts thereof, one or more polyepoxide compounds and one or more polyhalogen compounds.
A method for adjusting pitch of an audio signal, comprising: detecting input notes in the audio signal; mapping the input notes to corresponding estimated output notes, each output note having an associated upper note boundary and lower note boundary and mapping being based on associated upper and lower note boundaries; and modifying at least one of the upper note boundary and the lower note boundary of at least one output note in response to previously received input notes. detecting input notes in the audio signal; mapping the input notes to corresponding estimated output notes, each output note having an associated upper note boundary and lower note boundary and mapping being based on associated upper and lower note boundaries; and modifying at least one of the upper note boundary and the lower note boundary of at least one output note in response to previously received input notes.
A system for transporting people and/or freight, comprising: - a shuttle which is provided on the upper side with detachable means for hoisting the shuttle by means of a hoisting cable, and which is provided on the lower side with a first catch member, - a shuttle landing station on which a second catch member is provided, wherein said two catch members (7-1, 7-2) are at least partly complementary to each other and can be coupled to each other, and - stabilisation members (9-1, 9-2) which can be activated and which are constructed such that, after the coupling of the catch members (7-1, 7-2), they maintain the position of the shuttle on the landing station, and which stabilisation members are provided at least in part on the shuttle and/or on the landing station, wherein the activable stabilisation members (9-1, 9-2) and the detachable means are connected to each other such that to lift the shuttle from its position on the landing station, the connection between the hoisting cable and the shuttle is restored by the detachable means and immediately after the stabilisation member (9-1, 9-2) are automatically deactivated. - a shuttle which is provided on the upper side with detachable means for hoisting the shuttle by means of a hoisting cable, and which is provided on the lower side with a first catch member, - a shuttle landing station on which a second catch member is provided, wherein said two catch members (7-1, 7-2) are at least partly complementary to each other and can be coupled to each other, and - stabilisation members (9-1, 9-2) which can be activated and which are constructed such that, after the coupling of the catch members (7-1, 7-2), they maintain the position of the shuttle on the landing station, and which stabilisation members are provided at least in part on the shuttle and/or on the landing station, wherein the activable stabilisation members (9-1, 9-2) and the detachable means are connected to each other such that to lift the shuttle from its position on the landing station, the connection between the hoisting cable and the shuttle is restored by the detachable means and immediately after the stabilisation member (9-1, 9-2) are automatically deactivated.
A system for providing extrinsic calibration of a camera to a relative working environment of a programmable motion device that includes an end-effector, said system comprising: a calibration unit attached to the end effector, the calibration unit including a plurality of fiducials (264, 266, 274, 276); at least one camera for viewing the plurality of fiducials (264, 266, 274, 276) of the calibration unit as the programmable motion device moves in at least three degrees of freedom, and for capturing a plurality of images containing one or more of the plurality of fiducials (264, 266, 274, 276); and a calibration processing system (100, 200) for analyzing the plurality of images to determine a fiducial location with respect to the at least one camera to permit calibration of the at least one camera with the programmable motion device, wherein the system is characterized by the calibration unit including a coupling portion for coupling to the end-effector and a transverse portion that is transverse to the coupling portion, the transverse portion including the plurality of fiducials (264, 266, 274, 276) that are positioned on mutually opposing sides of the transverse portion and further positioned on mutually opposing sides of the end-effector. a calibration unit attached to the end effector, the calibration unit including a plurality of fiducials (264, 266, 274, 276); at least one camera for viewing the plurality of fiducials (264, 266, 274, 276) of the calibration unit as the programmable motion device moves in at least three degrees of freedom, and for capturing a plurality of images containing one or more of the plurality of fiducials (264, 266, 274, 276); and a calibration processing system (100, 200) for analyzing the plurality of images to determine a fiducial location with respect to the at least one camera to permit calibration of the at least one camera with the programmable motion device, wherein the system is characterized by the calibration unit including a coupling portion for coupling to the end-effector and a transverse portion that is transverse to the coupling portion, the transverse portion including the plurality of fiducials (264, 266, 274, 276) that are positioned on mutually opposing sides of the transverse portion and further positioned on mutually opposing sides of the end-effector.
A general wiper connecting apparatus, for connecting various types of wiper driving arms (2, 2', 2") on a wiper securing seat, and comprising: a main body, formed with a front end and a rear end opposite to the front end, and formed with a penetrated hole allowing a pivotal shaft of the wiper driving arm (2, 2', 2") to be received therein; a head portion, extended from the front end of the main body; a tail portion, extended from the rear end of the main body, and formed with a pair of elastic clamping pieces for latching the wiper driving arm (2, 2', 2"); and a pair of side boards, disposed at two sides of the main body, wherein each of the side boards is respectively formed with a through hole corresponding to the penetrated hole, the wiper connecting apparatus being characterised in that the head portion is formed with a positioning groove at the location connected with the main body for positioning the wiper driving arm (2, 2', 2") and an insertion slit is respectively formed between the pair of side boards and the main body for allowing the wiper driving arm (2, 2', 2") to be inserted. a main body, formed with a front end and a rear end opposite to the front end, and formed with a penetrated hole allowing a pivotal shaft of the wiper driving arm (2, 2', 2") to be received therein; a head portion, extended from the front end of the main body; a tail portion, extended from the rear end of the main body, and formed with a pair of elastic clamping pieces for latching the wiper driving arm (2, 2', 2"); and a pair of side boards, disposed at two sides of the main body, wherein each of the side boards is respectively formed with a through hole corresponding to the penetrated hole, the wiper connecting apparatus being characterised in that the head portion is formed with a positioning groove at the location connected with the main body for positioning the wiper driving arm (2, 2', 2") and an insertion slit is respectively formed between the pair of side boards and the main body for allowing the wiper driving arm (2, 2', 2") to be inserted.
Steering assembly comprising a steering shaft with a steering shaft connection joined to a clevis of a steering clutch via a connecting piece, wherein the steering shaft connection and the hub-like connecting piece are designed as plug-in partners at their facing ends by means of at least one tongue-and-groove guide element pair (5, 6) oriented along the longitudinal axis and providing a torque-transmitting positive guidance, wherein a first guide element (5, 6) of the guide element pair (5, 6) is located on the steering shaft connection and a second guide element (5, 6) is located on the connecting piece, thereby providing a clamping device clamping the plug-in partners against one another in a plugged position, characterised in that at least one longitudinally axial groove terminates at the end remote from the connecting piece into an annular groove provided at the steering shaft connection, in that the connecting piece supports a sleeve, which is movable relative to the connecting piece and which has, at a steering shaft-end side of the sleeve, one or more projections, which extend radially inwards from the sleeve and in the plugged position engage with the annular groove, which forms a stop by way of its clutch-side flank, and in that the clamping device is designed such that it pushes the stops formed by the flank and by the projections against one another.
A liquid droplet discharging unit for ejecting a liquid containing cells comprising: a liquid droplet discharging port; a liquid retaining section that comprises the liquid droplet discharging port; two tubes (211, 212) disposed in communication with the liquid retaining section; and first and second liquid sucking/ejecting members (201, 202) coupled to the two tubes (211, 212) respectively, wherein while the first liquid sucking/ejecting member is in a sucking or ejecting state, the second liquid sucking/ejecting member is in a non-sucking or non-ejecting state correspondingly, characterised by a nozzle plate in which the liquid droplet discharging port is provided; a vibration member configured to vibrate the nozzle plate to discharge a liquid droplet through the liquid droplet discharging port, and wherein a surface of the liquid retaining section facing the nozzle plate is atmospherically exposed. a liquid droplet discharging port; a liquid retaining section that comprises the liquid droplet discharging port; two tubes (211, 212) disposed in communication with the liquid retaining section; and first and second liquid sucking/ejecting members (201, 202) coupled to the two tubes (211, 212) respectively, wherein while the first liquid sucking/ejecting member is in a sucking or ejecting state, the second liquid sucking/ejecting member is in a non-sucking or non-ejecting state correspondingly, characterised by a nozzle plate in which the liquid droplet discharging port is provided; a vibration member configured to vibrate the nozzle plate to discharge a liquid droplet through the liquid droplet discharging port, and wherein a surface of the liquid retaining section facing the nozzle plate is atmospherically exposed.
A circuit board comprising: a resin; first and second fiberglass fibers; and first and second signal line traces capable of transmitting electrical signals by differential mode signalling, characterised in that: the first and second fiberglass fibers each comprise straight line segments connected by vertices to form a zig-zag design and the first and second signal line traces cross the zig-zag design, to assist in reducing differential to common mode conversion between signals on the first and second signal line traces. a resin; first and second fiberglass fibers; and first and second signal line traces capable of transmitting electrical signals by differential mode signalling, characterised in that: the first and second fiberglass fibers each comprise straight line segments connected by vertices to form a zig-zag design and the first and second signal line traces cross the zig-zag design, to assist in reducing differential to common mode conversion between signals on the first and second signal line traces.
A gas valve unit comprising at least a gas pipe for transporting gas through the gas valve unit, a control valve arranged to the gas pipe, an enclosure for enclosing the gas pipe and the control valve, and having an inlet and an outlet of the gas pipe, wherein the enclosure comprises a planar base plate having a first side (24.1) and a second side (24.2), and a casing, which comprises side walls and a bottom part, which casing is arranged at the first side (24.1) of the planar base plate, and removably attached to the planar base plate by the side walls, characterized in that the gas pipe and the control valve are supported by the planar base plate at the first side (24.1) of the planar base plate, and that the planar base plate comprises an inlet lead-through for the inlet of the gas pipe, and an outlet lead-through for the outlet of the gas pipe.
An implantable medical device comprising: a housing that is configured to enclose internal components including at least processing circuitry and a power source inside a hermetically sealed cavity, wherein one or more channels that extend through the housing are each configured to receive a lead and electrically couple the lead to the internal components; and a funneling section that is configured to be securely attached to the housing and defines one or more mouths to the one or more channels, wherein the housing and funneling section together define a first and a second major surface (120, 122) and a sidewall that extends between the first and the second major surface, wherein the first major surface defines a substantially flat circle and the sidewall extends substantially perpendicular from the first major surface to the second major surface, wherein the second major surface domes away from the first major surface as the second major surface extends radially in towards a center of the implantable medical device, wherein the funneling section defines one or more funneling walls that define a rounded and smooth transition from the sidewall to the surface of funneling section that defines each of the one or more mouths, characterized in that the funneling section defines each of the one or more mouths at a location that is radially recessed from the sidewall. a housing that is configured to enclose internal components including at least processing circuitry and a power source inside a hermetically sealed cavity, wherein one or more channels that extend through the housing are each configured to receive a lead and electrically couple the lead to the internal components; and a funneling section that is configured to be securely attached to the housing and defines one or more mouths to the one or more channels, wherein the housing and funneling section together define a first and a second major surface (120, 122) and a sidewall that extends between the first and the second major surface, wherein the first major surface defines a substantially flat circle and the sidewall extends substantially perpendicular from the first major surface to the second major surface, wherein the second major surface domes away from the first major surface as the second major surface extends radially in towards a center of the implantable medical device, wherein the funneling section defines one or more funneling walls that define a rounded and smooth transition from the sidewall to the surface of funneling section that defines each of the one or more mouths, characterized in that the funneling section defines each of the one or more mouths at a location that is radially recessed from the sidewall.
Method for stabilizing liquid mercury comprising: a step (a) in which liquid mercury as well as elemental sulfur are reacted in stoichiometric conditions through a milling process to obtain mercury sulphide (metacinnabar); a step (b) in which the product obtained in step (a) is added to a mixture comprising aggregates, elemental sulfur and a sulfur polymer to obtain a sulphur polymer cement. a step (a) in which liquid mercury as well as elemental sulfur are reacted in stoichiometric conditions through a milling process to obtain mercury sulphide (metacinnabar); a step (b) in which the product obtained in step (a) is added to a mixture comprising aggregates, elemental sulfur and a sulfur polymer to obtain a sulphur polymer cement.
An implantable medical device system, comprising: an implantable component configured to be implanted in a recipient of the implantable medical device system; an external device; and an external component configured to be attached to the recipient; wherein the external component is configured to operate as a temporary secure proxy device for wireless pairing of the implantable component with the external device, wherein to operate as a temporary secure proxy device for wireless pairing of the external device with the implantable component, the external component is configured to: implement a pairing process with the external device to obtain security data for formation of a non-closely coupled wireless connection between the external component and the external device; and transfer the security data to the implantable component over a closely-coupled wireless connection formed between the external component and the implantable component. an implantable component configured to be implanted in a recipient of the implantable medical device system; an external device; and an external component configured to be attached to the recipient; wherein the external component is configured to operate as a temporary secure proxy device for wireless pairing of the implantable component with the external device, wherein to operate as a temporary secure proxy device for wireless pairing of the external device with the implantable component, the external component is configured to: implement a pairing process with the external device to obtain security data for formation of a non-closely coupled wireless connection between the external component and the external device; and transfer the security data to the implantable component over a closely-coupled wireless connection formed between the external component and the implantable component. implement a pairing process with the external device to obtain security data for formation of a non-closely coupled wireless connection between the external component and the external device; and transfer the security data to the implantable component over a closely-coupled wireless connection formed between the external component and the implantable component.
A device (120 - 120, 204, 500) comprising: a processor (122, 502); and a computer-readable medium (124, 504) including modules, the modules when executed by the processor, configure the device to perform a secure boot process based at least in part on receiving an update for software, the modules comprising: a cryptographic module configured to secure the device by: generating a sealing seed; generating a migration key based at least in part on the sealing seed and at least one software descriptor associated with a previous version of the software; and generating a sealing key based at least in part on the sealing seed and at least one software descriptor associated with a new version of the software; a migration module configured to retrieve secrets associated with the previous version of the software using the migration key; and a sealing module configured to seal the secrets for the new version of the software using the sealing key; wherein to generate the sealing seed, the cryptographic module is configured to hash a concatenation of a device sealing constant to a fuse-derived secret of the device. a processor (122, 502); and a computer-readable medium (124, 504) including modules, the modules when executed by the processor, configure the device to perform a secure boot process based at least in part on receiving an update for software, the modules comprising: a cryptographic module configured to secure the device by: generating a sealing seed; generating a migration key based at least in part on the sealing seed and at least one software descriptor associated with a previous version of the software; and generating a sealing key based at least in part on the sealing seed and at least one software descriptor associated with a new version of the software; a migration module configured to retrieve secrets associated with the previous version of the software using the migration key; and a sealing module configured to seal the secrets for the new version of the software using the sealing key; a cryptographic module configured to secure the device by: generating a sealing seed; generating a migration key based at least in part on the sealing seed and at least one software descriptor associated with a previous version of the software; and generating a sealing key based at least in part on the sealing seed and at least one software descriptor associated with a new version of the software; generating a sealing seed; generating a migration key based at least in part on the sealing seed and at least one software descriptor associated with a previous version of the software; and generating a sealing key based at least in part on the sealing seed and at least one software descriptor associated with a new version of the software; a migration module configured to retrieve secrets associated with the previous version of the software using the migration key; and a sealing module configured to seal the secrets for the new version of the software using the sealing key; wherein to generate the sealing seed, the cryptographic module is configured to hash a concatenation of a device sealing constant to a fuse-derived secret of the device.