mhurhangee/ep-ind-claims huggingface dataset:
A method of monitoring a conveyance apparatus within a conveyance system, the method comprising: obtaining a health level of the conveyance system at a first conveyance apparatus location; determining that the health level for the conveyance system at the first conveyance apparatus location is outside of a threshold operating range; activating an alert on a mobile device indicating that the health level for the conveyance system at the first conveyance apparatus location is outside of the threshold operating range; receiving a selection input on the mobile device, the selection input indicating a mechanic feedback regarding the health level of the conveyance system at the first conveyance apparatus location; and characterised by: adjusting the threshold operating range in response to the mechanic feedback. obtaining a health level of the conveyance system at a first conveyance apparatus location; determining that the health level for the conveyance system at the first conveyance apparatus location is outside of a threshold operating range; activating an alert on a mobile device indicating that the health level for the conveyance system at the first conveyance apparatus location is outside of the threshold operating range; receiving a selection input on the mobile device, the selection input indicating a mechanic feedback regarding the health level of the conveyance system at the first conveyance apparatus location; and characterised by: adjusting the threshold operating range in response to the mechanic feedback.
A system for use of a pharmaceutical product, comprising: a container accommodating a pharmaceutical product, the container being a universal container configured to interface with a plurality of medical devices (104; 206; 208) of different types and comprising a wireless communication unit and a memory which stores pairing-specific information for each of the plurality of medical devices (104; 206; 208), wherein the types include a syringe type, an automated injection device type, a patch pump device type, and a reconstitution device type; and a medical device (104; 206; 208) enabled for wireless communication with the wireless communication unit of the container and configured to read the pairing-specific information from the memory of the container to verify whether the medical device (104; 206; 208) is one of the plurality of medical devices (104; 206; 208) for which pairing-specific information is stored in the memory of the container and whether the container is thus permitted to be used by the medical device (104; 206; 208), wherein the pairing-specific information comprises an identification of the medical device (104; 206; 208) and at least one control parameter, and wherein the identification of the medical device and the at least one control parameter are specific to a device type of the medical device (104; 206; 208). a container accommodating a pharmaceutical product, the container being a universal container configured to interface with a plurality of medical devices (104; 206; 208) of different types and comprising a wireless communication unit and a memory which stores pairing-specific information for each of the plurality of medical devices (104; 206; 208), wherein the types include a syringe type, an automated injection device type, a patch pump device type, and a reconstitution device type; and a medical device (104; 206; 208) enabled for wireless communication with the wireless communication unit of the container and configured to read the pairing-specific information from the memory of the container to verify whether the medical device (104; 206; 208) is one of the plurality of medical devices (104; 206; 208) for which pairing-specific information is stored in the memory of the container and whether the container is thus permitted to be used by the medical device (104; 206; 208), wherein the pairing-specific information comprises an identification of the medical device (104; 206; 208) and at least one control parameter, and wherein the identification of the medical device and the at least one control parameter are specific to a device type of the medical device (104; 206; 208).
A synthetic methylmalonyl-CoA mutase polynucleotide ( synMUT) selected from the group consisting of: a) a polynucleotide comprising the nucleic acid sequence of SEQ ID NO:1; b) a polynucleotide comprising a polynucleotide having a nucleic acid sequence with at least about 80% identity to the nucleic acid sequence of SEQ ID NO:1 and encoding a polypeptide according to SEQ ID NO:2, and having equivalent expression in a host to either SEQ ID NO:1 expression or SEQ ID NO:3 expression, wherein the polynucleotide does not have the nucleic acid sequence of SEQ ID NO:3. a) a polynucleotide comprising the nucleic acid sequence of SEQ ID NO:1; b) a polynucleotide comprising a polynucleotide having a nucleic acid sequence with at least about 80% identity to the nucleic acid sequence of SEQ ID NO:1 and encoding a polypeptide according to SEQ ID NO:2, and having equivalent expression in a host to either SEQ ID NO:1 expression or SEQ ID NO:3 expression, wherein the polynucleotide does not have the nucleic acid sequence of SEQ ID NO:3.
A modular heat exchange tower that extends vertically along a longitudinal axis, comprising: a first module comprising a first basin disposed therein; one or more additional modules (314, 320, 322, 324), at least one in the one or more additional modules having an outlet; a first flume in fluid communication with said outlet, wherein said flume extends from said additional module having an outlet to said first module, the first basin comprising a flow opening configured to be connected at the said additional module having an outlet, a first heat exchange section; and an air current generator, characterised in that the first flume is trapezoidal in cross-section at a flow connection between the first basin and said additional module having an outlet, wherein the flow connection comprises angles that attach to the basins sides having a pair of side walls (384, 386) extending therefrom, and wherein each sidewall (384, 386) is sloped at an angle. a first module comprising a first basin disposed therein; one or more additional modules (314, 320, 322, 324), at least one in the one or more additional modules having an outlet; a first flume in fluid communication with said outlet, wherein said flume extends from said additional module having an outlet to said first module, the first basin comprising a flow opening configured to be connected at the said additional module having an outlet, a first heat exchange section; and an air current generator, characterised in that the first flume is trapezoidal in cross-section at a flow connection between the first basin and said additional module having an outlet, wherein the flow connection comprises angles that attach to the basins sides having a pair of side walls (384, 386) extending therefrom, and wherein each sidewall (384, 386) is sloped at an angle.
A computer system comprising a first processor unit, a second processor unit, and a processor synchronization system, said processor synchronization system comprising an internal synchronizer running on the first processor unit, wherein the internal synchronizer is configured to: communicate with an external synchronizer to determine whether an undesired amount of skew is present between the first processor unit and the second processor unit in communication with the external synchronizer, and selectively direct the first processor unit to perform an action without generating a needed result such that an undesired amount of skew between the first processor unit and the second processor unit is reduced when the undesired amount of skew is present, wherein the action removes a pre-scheduled idle time from the first processor unit, and wherein the first processor unit and the second processor unit are associated with each other for a high integrity mode in which integrity checks are performed on corresponding messages generated by the first processor unit and the second processor unit. communicate with an external synchronizer to determine whether an undesired amount of skew is present between the first processor unit and the second processor unit in communication with the external synchronizer, and selectively direct the first processor unit to perform an action without generating a needed result such that an undesired amount of skew between the first processor unit and the second processor unit is reduced when the undesired amount of skew is present, wherein the action removes a pre-scheduled idle time from the first processor unit, and wherein the first processor unit and the second processor unit are associated with each other for a high integrity mode in which integrity checks are performed on corresponding messages generated by the first processor unit and the second processor unit.
A non-AP STA for communicating in a wireless network, the device comprising a processor, a memory, and a radio, wherein the device is characterized in that the device is adapted to: communicate an Extended U-APSD element to an access point; the Extended U-APSD element including an AC_GR subfield, which, when set to a value, alerts the access point that the device is adapted to send a trigger frame for group-addressed frames; and send the trigger frame to the access point. communicate an Extended U-APSD element to an access point; the Extended U-APSD element including an AC_GR subfield, which, when set to a value, alerts the access point that the device is adapted to send a trigger frame for group-addressed frames; and send the trigger frame to the access point.
A camera assembly for use in a machine vision system, the assembly comprising: a support structure forming a mounting flange that is configured for coupling with any of a plurality of exchangeable electrically controllable adjustable focal length lens assemblies, each of said exchangeable electrically controllable adjustable focal length lens assemblies including a fixed glass imager lens and a liquid lens; a two dimensional image sensor supported by the support structure and forming a two dimensional sensor plane spaced from the mounting flange by a flange focal distance; a distance measurement device configured to determine a target distance from the camera assembly to a target to be imaged; and a memory supported by the support structure and configured to store a flange focal distance error prior to normal operation of the camera assembly wherein the flange focal distance error is the difference between an ideal flange focal distance and the flange focal distance; a processor configured to, when a first lens assembly out of said plurality of exchangeable electrically controllable adjustable focal length lens assemblies is mounted to the mounting flange, generate lens control signals to compensate for the flange focal distance error by calculating an optical power for the liquid lens, for focusing on the target, based upon an effective focal length of the fixed glass imager lens, as retrieved by the processor from the first lens assembly, the target distance, and the flange focal distance error stored in the memory. a support structure forming a mounting flange that is configured for coupling with any of a plurality of exchangeable electrically controllable adjustable focal length lens assemblies, each of said exchangeable electrically controllable adjustable focal length lens assemblies including a fixed glass imager lens and a liquid lens; a two dimensional image sensor supported by the support structure and forming a two dimensional sensor plane spaced from the mounting flange by a flange focal distance; a distance measurement device configured to determine a target distance from the camera assembly to a target to be imaged; and a memory supported by the support structure and configured to store a flange focal distance error prior to normal operation of the camera assembly wherein the flange focal distance error is the difference between an ideal flange focal distance and the flange focal distance; a processor configured to, when a first lens assembly out of said plurality of exchangeable electrically controllable adjustable focal length lens assemblies is mounted to the mounting flange, generate lens control signals to compensate for the flange focal distance error by calculating an optical power for the liquid lens, for focusing on the target, based upon an effective focal length of the fixed glass imager lens, as retrieved by the processor from the first lens assembly, the target distance, and the flange focal distance error stored in the memory.
An apparatus configured for removal or extraction of an intraocular lens (60, 65), the intraocular lens (60, 65) having a first optical surface and a second optical surface, the apparatus comprising: a sleeve; a pair of blades configured to cut the intraocular lens (60, 65), wherein the pair of blades includes a first blade and a second blade fixed relative to each other, and is at a distal end of the sleeve; a circular base at a proximal end of the sleeve; and an actuation assembly movable relative to the pair of blades, wherein the actuation assembly is configured to bring the pair of blades into engagement with the intraocular lens (60, 65) to cut the intraocular lens (60, 65), and to keep the pair of blades in engagement with the intraocular lens (60, 65) while the pair of blades forms spaced-apart cut lines in the intraocular lens (60, 65), characterized in that the actuation assembly includes: a grasper being selectively extendable out of and retractable into said end of the sleeve and connected to a handle such that, when the handle slides distally or proximally, the grasper extends distally or proximally, respectively, whereby the grasper is configured to grasp the intraocular lens (60, 65); and a spring located proximal to the handle and distal to the circular base, the spring being configured to bias the grasper in an extended configuration and the sleeve in a retracted configuration. a sleeve; a pair of blades configured to cut the intraocular lens (60, 65), wherein the pair of blades includes a first blade and a second blade fixed relative to each other, and is at a distal end of the sleeve; a circular base at a proximal end of the sleeve; and an actuation assembly movable relative to the pair of blades, wherein the actuation assembly is configured to bring the pair of blades into engagement with the intraocular lens (60, 65) to cut the intraocular lens (60, 65), and to keep the pair of blades in engagement with the intraocular lens (60, 65) while the pair of blades forms spaced-apart cut lines in the intraocular lens (60, 65), characterized in that the actuation assembly includes: a grasper being selectively extendable out of and retractable into said end of the sleeve and connected to a handle such that, when the handle slides distally or proximally, the grasper extends distally or proximally, respectively, whereby the grasper is configured to grasp the intraocular lens (60, 65); and a spring located proximal to the handle and distal to the circular base, the spring being configured to bias the grasper in an extended configuration and the sleeve in a retracted configuration. a grasper being selectively extendable out of and retractable into said end of the sleeve and connected to a handle such that, when the handle slides distally or proximally, the grasper extends distally or proximally, respectively, whereby the grasper is configured to grasp the intraocular lens (60, 65); and a spring located proximal to the handle and distal to the circular base, the spring being configured to bias the grasper in an extended configuration and the sleeve in a retracted configuration.
A razor cartridge comprising: a blade; a cartridge housing; and a retainer for retaining the blade in the cartridge housing, the retainer comprising a central portion for extending across a minor axis of the blade, and a pair of legs extending from respective distal ends of the central portion to form substantially a U-shape with the central portion; wherein the cartridge housing has a pair of openings, and wherein each leg is inserted into a respective opening in the cartridge housing; characterized in that each leg has a protrusion to engage a first wall of its respective cartridge housing opening, to restrict movement of the retainer relative to the cartridge housing. a blade; a cartridge housing; and a retainer for retaining the blade in the cartridge housing, the retainer comprising a central portion for extending across a minor axis of the blade, and a pair of legs extending from respective distal ends of the central portion to form substantially a U-shape with the central portion; wherein the cartridge housing has a pair of openings, and wherein each leg is inserted into a respective opening in the cartridge housing; characterized in that each leg has a protrusion to engage a first wall of its respective cartridge housing opening, to restrict movement of the retainer relative to the cartridge housing.
A method at an identity mapping system, comprising: receiving a first byte stream from a client device (104, 106); determining that the first byte stream includes an authentication request; submitting the first byte stream to a distributed computing system that provides a plurality of services; receiving, from the distributed computing system, a second byte stream including a tag indicating that the authentication request will be handled in a trust mode where user credentials are not required for authentication; modifying the second byte stream into a third byte stream, including changing the tag to indicate that the user credentials are required; submitting the third byte stream to the client device; in response to the third byte stream, receiving user credentials from the client device in a fourth byte stream; intercepting the fourth byte stream; determining a user protocol in which the client device submitted the fourth byte stream; authenticating the fourth byte stream based on the user credentials; upon successfully authenticating the fourth byte stream, determining a service of the plurality of services that the fourth byte stream is authorized to access; determining service credentials associated with the service; generating a service request, including translating the user protocol of the fourth byte stream to a service protocol associated with the service at least in part by associating the service credentials with the service request; and submitting the service request to the distributed computing system. receiving a first byte stream from a client device (104, 106); determining that the first byte stream includes an authentication request; submitting the first byte stream to a distributed computing system that provides a plurality of services; receiving, from the distributed computing system, a second byte stream including a tag indicating that the authentication request will be handled in a trust mode where user credentials are not required for authentication; modifying the second byte stream into a third byte stream, including changing the tag to indicate that the user credentials are required; submitting the third byte stream to the client device; in response to the third byte stream, receiving user credentials from the client device in a fourth byte stream; intercepting the fourth byte stream; determining a user protocol in which the client device submitted the fourth byte stream; authenticating the fourth byte stream based on the user credentials; upon successfully authenticating the fourth byte stream, determining a service of the plurality of services that the fourth byte stream is authorized to access; determining service credentials associated with the service; generating a service request, including translating the user protocol of the fourth byte stream to a service protocol associated with the service at least in part by associating the service credentials with the service request; and submitting the service request to the distributed computing system.
An electrical resistor (10, 40) comprising: a resistive element (14, 42) having opposite ends, an upper surface and a lower surface; a first termination (24, 44) at one of the opposite ends of the resistive element (14, 42); a second termination (25, 46) at the other of the opposite ends of the resistive element (14, 42); the first and second terminations (24, 25, 44, 46) each extending under the lower surface of the resistive element (14, 42) and having an upper termination surface spaced away from the resistive element (14, 42), the first and second terminations (24, 25, 44, 46) being electrically disconnected from one another except through the resistive element (14, 42); characterized by: an electrically non-conductive filler, the filler engaging both the lower surface of the resistive element (14, 42) and the upper termination surfaces of the first and second terminations (24, 25, 44, 46), the filler being cured, hardened, and bonded to both the lower surface of the resistive element (14, 42) and to the upper termination surfaces of the first and second terminations (24, 25, 44, 46) so as to be in heat conducting relation to both the resistive element (14, 42) and the first and second terminations (24, 25, 44, 46) whereby heat will be conducted from the resistive element (14, 42) through the filler to the first and second terminations (24, 25, 44, 46). a resistive element (14, 42) having opposite ends, an upper surface and a lower surface; a first termination (24, 44) at one of the opposite ends of the resistive element (14, 42); a second termination (25, 46) at the other of the opposite ends of the resistive element (14, 42); the first and second terminations (24, 25, 44, 46) each extending under the lower surface of the resistive element (14, 42) and having an upper termination surface spaced away from the resistive element (14, 42), the first and second terminations (24, 25, 44, 46) being electrically disconnected from one another except through the resistive element (14, 42); characterized by: an electrically non-conductive filler, the filler engaging both the lower surface of the resistive element (14, 42) and the upper termination surfaces of the first and second terminations (24, 25, 44, 46), the filler being cured, hardened, and bonded to both the lower surface of the resistive element (14, 42) and to the upper termination surfaces of the first and second terminations (24, 25, 44, 46) so as to be in heat conducting relation to both the resistive element (14, 42) and the first and second terminations (24, 25, 44, 46) whereby heat will be conducted from the resistive element (14, 42) through the filler to the first and second terminations (24, 25, 44, 46).
A combination of a dental tool and a manipulating device, said dental tool comprising a shaft extending along a longitudinal axis and having a distal end and a proximal end, the proximal end region of the tool comprising connection means for connection to the manipulating device, characterized in that said connection means comprises an annular resilient retention member formed of a metal material and connected to said shaft such that at least a section of the member protrudes from a surface of said shaft for forming a snap or press fit engagement with the manipulating device.