mhurhangee/ep-ind-claims huggingface dataset:
A method of operating a self-driving system, characterized in that the method comprises: receiving formal routing and task instructions from a control system or a system administrator, wherein the formal routing and task instructions are received by a self-driving vehicle comprising a mobile base having an upper surface; placing temporarily one or more markers within or near a workspace to change the formal routing and task instructions when a worker and/or item in the workspace would prevent the self-driving vehicle from passing through or rotating within the workspace; detecting and retrieving routing and task instructions from the one or more markers using a camera coupled to the self-driving vehicle, wherein the routing and task instructions from the markers are different than the formal routing and task instructions, and comprise a height of a workbench within the workspace; following the routing and task instructions retrieved from the markers and adjusting a height of the upper surface of the mobile base according to the height of the workbench to raise or lower an inventory holder with inventory for ease of handling the inventory, by using the self-driving vehicle; sending the routing and task instructions retrieved from the markers to the control system or the system administrator to update the formal routing and task instructions; and removing the one or more markers from the workspace. receiving formal routing and task instructions from a control system or a system administrator, wherein the formal routing and task instructions are received by a self-driving vehicle comprising a mobile base having an upper surface; placing temporarily one or more markers within or near a workspace to change the formal routing and task instructions when a worker and/or item in the workspace would prevent the self-driving vehicle from passing through or rotating within the workspace; detecting and retrieving routing and task instructions from the one or more markers using a camera coupled to the self-driving vehicle, wherein the routing and task instructions from the markers are different than the formal routing and task instructions, and comprise a height of a workbench within the workspace; following the routing and task instructions retrieved from the markers and adjusting a height of the upper surface of the mobile base according to the height of the workbench to raise or lower an inventory holder with inventory for ease of handling the inventory, by using the self-driving vehicle; sending the routing and task instructions retrieved from the markers to the control system or the system administrator to update the formal routing and task instructions; and removing the one or more markers from the workspace.
An air conditioning control device comprising: a measurement information acquirer to acquire history information related to a set temperature of an air conditioning device; a duration time calculator to calculate, for each of a plurality of set temperatures, a plurality of set-temperature duration times that are respective duration times of the set temperature based on the history information; a feature calculator to calculate features related to respective duration times of the set temperatures based on the respective calculated set-temperature duration times; and a determiner to calculate respective evaluation values for the plurality of set temperatures based on the features and determine a set temperature to be instructed to the air conditioning device based on the evaluation values. a measurement information acquirer to acquire history information related to a set temperature of an air conditioning device; a duration time calculator to calculate, for each of a plurality of set temperatures, a plurality of set-temperature duration times that are respective duration times of the set temperature based on the history information; a feature calculator to calculate features related to respective duration times of the set temperatures based on the respective calculated set-temperature duration times; and a determiner to calculate respective evaluation values for the plurality of set temperatures based on the features and determine a set temperature to be instructed to the air conditioning device based on the evaluation values.
An apparatus for attaching a counter pulsation device to a blood vessel in a human or animal subject, the apparatus comprising: an interposition graft having a first end configured to be attached to the blood vessel, a second end, and an interior passage providing fluid connection between the first end and the second end; and a pump graft having first end attached to the second end of the interposition graft, a second end configured to be attached to the CPD, and an interior passage providing fluid connection between the first end and the second end; wherein: the interior passage of the interposition graft comprises a rough surface configured to promote biological growth on the rough surface; the interior passage of the pump graft comprises a smooth surface configured to inhibit biological growth on the smooth surface; the exterior of the pump graft has a grooved or accordion shape; and the second end of the interposition graft comprises a first sewing ring, and the first end of the pump graft comprises a second sewing ring, and the first and second sewing rings are attachable to each other. an interposition graft having a first end configured to be attached to the blood vessel, a second end, and an interior passage providing fluid connection between the first end and the second end; and a pump graft having first end attached to the second end of the interposition graft, a second end configured to be attached to the CPD, and an interior passage providing fluid connection between the first end and the second end; wherein: the interior passage of the interposition graft comprises a rough surface configured to promote biological growth on the rough surface; the interior passage of the pump graft comprises a smooth surface configured to inhibit biological growth on the smooth surface; the exterior of the pump graft has a grooved or accordion shape; and the second end of the interposition graft comprises a first sewing ring, and the first end of the pump graft comprises a second sewing ring, and the first and second sewing rings are attachable to each other. the interior passage of the interposition graft comprises a rough surface configured to promote biological growth on the rough surface; the interior passage of the pump graft comprises a smooth surface configured to inhibit biological growth on the smooth surface; the exterior of the pump graft has a grooved or accordion shape; and the second end of the interposition graft comprises a first sewing ring, and the first end of the pump graft comprises a second sewing ring, and the first and second sewing rings are attachable to each other.
A method for simulation of an overall system by co-simulating two subsystems (TS1, TS2) of the overall system in a simulation device, wherein the subsystems (TS1, TS2) are reciprocally coupled by way of coupling variables (y 1, y 2), characterized in that in the simulation device a mathematical model of the subsystems (TS1, TS2) which is valid at the current operating point of the overall system is identified from input variables (x 1, x 2) and/or measured variables (w 1, w 2) of the subsystems (TS1, TS2) by an extrapolation device by a method of data-based model identification and, from this model, the coupling variables (y 1, y 2) are extrapolated for a subsequent coupling time step and made available to the subsystems (TS1, TS2).
A urinary catheter product, comprising: a package containing: a hydrophilic urinary catheter; and a foamed hydration medium for hydrating a hydrophilic material of the urinary catheter, the foamed hydration medium comprising a hydration liquid comprising a hydration liquid for hydrating the hydrophilic material of the urinary catheter and a mass of gas bubbles formed on or in the hydration liquid. a hydrophilic urinary catheter; and a foamed hydration medium for hydrating a hydrophilic material of the urinary catheter, the foamed hydration medium comprising a hydration liquid comprising a hydration liquid for hydrating the hydrophilic material of the urinary catheter and a mass of gas bubbles formed on or in the hydration liquid.
A computer implemented method for automatically transmitting a location of a wireless data processing device comprising: presenting a user interface, during a power-down sequence, to enter a shutdown security code to disable security features before shutdown; in response to determining that, after a specified number of attempts to enter a correct shutdown security code into the presented user interface, an incorrect shutdown security code is entered into the presented user interface, automatically activating security features and powering down the wireless data processing device; temporarily powering up the wireless data processing device or portion thereof, in a security mode, in response to reaching a predetermined time, wherein the security mode includes activating security features (114, 112) that include not reverting the wireless data processing device to a fully powered state; in the security mode, determining a current location of the wireless data processing device using one or more specified location determination techniques; in the security mode, transmitting (106, 150) the current location of the wireless data processing device over one or more specified communication channels; and powering down the wireless data processing device after the current location has been transmitted. presenting a user interface, during a power-down sequence, to enter a shutdown security code to disable security features before shutdown; in response to determining that, after a specified number of attempts to enter a correct shutdown security code into the presented user interface, an incorrect shutdown security code is entered into the presented user interface, automatically activating security features and powering down the wireless data processing device; temporarily powering up the wireless data processing device or portion thereof, in a security mode, in response to reaching a predetermined time, wherein the security mode includes activating security features (114, 112) that include not reverting the wireless data processing device to a fully powered state; in the security mode, determining a current location of the wireless data processing device using one or more specified location determination techniques; in the security mode, transmitting (106, 150) the current location of the wireless data processing device over one or more specified communication channels; and powering down the wireless data processing device after the current location has been transmitted.
A utility-grid-interactive electrical power converter for converting DC power from a photovoltaic array into AC power, by regulating single phase current or poly-phase currents in phase, respectively, with single phase or poly-phase grid voltages at a utility grid interface to source power into a utility grid and comprising: a low voltage DC to AC bridge; a high voltage DC to AC bridge; a DC-to-DC boost converter comprising an arrangement of semiconductor power switching devices, filter inductors (31, 32), sensors and capacitive energy storage elements (41, 42) that allow the DC-to-DC boost converter to convert the photovoltaic array voltage to a higher voltage, and; a control circuit; Wherein the low voltage DC-to-AC bridge and the high voltage DC-to-AC bridge are both either single-phase or split phase or three-phase; Wherein each of the low voltage bridge and the high voltage bridge comprises an arrangement of semiconductor power switching devices (54- 59, 64- 69), filter inductors (51- 53, 61-63), sensors and capacitive energy storage elements that enable each bridge (50, 60) to regulate current into a given utility grid phase (91, 92, 93) and according to current references provided by the control circuit and where each of the output phases of the low voltage DC-to-AC bridge is connected to a unique output phase of the high voltage DC-to-AC bridge; wherein the photovoltaic array is connected directly across the DC input of the low voltage DC-to-AC bridge and also to the input of the DC-to-DC boost converter and where the output of the DC-to-DC boost converter is connected across the DC input of the high voltage DC-to-AC bridge. a low voltage DC to AC bridge; a high voltage DC to AC bridge; a DC-to-DC boost converter comprising an arrangement of semiconductor power switching devices, filter inductors (31, 32), sensors and capacitive energy storage elements (41, 42) that allow the DC-to-DC boost converter to convert the photovoltaic array voltage to a higher voltage, and; a control circuit; Wherein the low voltage DC-to-AC bridge and the high voltage DC-to-AC bridge are both either single-phase or split phase or three-phase; Wherein each of the low voltage bridge and the high voltage bridge comprises an arrangement of semiconductor power switching devices (54- 59, 64- 69), filter inductors (51- 53, 61-63), sensors and capacitive energy storage elements that enable each bridge (50, 60) to regulate current into a given utility grid phase (91, 92, 93) and according to current references provided by the control circuit and where each of the output phases of the low voltage DC-to-AC bridge is connected to a unique output phase of the high voltage DC-to-AC bridge; wherein the photovoltaic array is connected directly across the DC input of the low voltage DC-to-AC bridge and also to the input of the DC-to-DC boost converter and where the output of the DC-to-DC boost converter is connected across the DC input of the high voltage DC-to-AC bridge.
A fully integral epoxy cap probe (300; 800), comprising: a body having a cavity configured to be disposed radially outward of a fan blade and comprising a first material; a frame disposed within the cavity and comprising a second material; a first sensor element and a ground plane disposed within the frame, the first sensor element and the ground plane comprising a third material; and a first soft lead in electronic communication with the first sensor element and the ground plane, wherein the second material and the third material are at least one of a resin, epoxy, and/or thermoset material. a body having a cavity configured to be disposed radially outward of a fan blade and comprising a first material; a frame disposed within the cavity and comprising a second material; a first sensor element and a ground plane disposed within the frame, the first sensor element and the ground plane comprising a third material; and a first soft lead in electronic communication with the first sensor element and the ground plane, wherein the second material and the third material are at least one of a resin, epoxy, and/or thermoset material.
Method for repairing a single crystal turbine blade, which comprises an airfoil with a tip having a tip cover plate, tip cooling air holes and a tip crown, said method comprising the steps of: a) removing the tip crown by manual grinding, thereby preserving the underlying tip cover plate; b) preparing the tip cooling air holes by manual grinding; c) closing said prepared tip cooling air holes by manual welding; and d) building-up a new tip crown by a LMF (Laser Metal Forming) process, wherein said tip further comprises at least one letterbox, which is a slot in said tip cover plate, which is closed by a brazed closing plate, wherein said at least one letterbox is prepared in step (b) by manual grinding and closed in step (c) by manual welding. a) removing the tip crown by manual grinding, thereby preserving the underlying tip cover plate; b) preparing the tip cooling air holes by manual grinding; c) closing said prepared tip cooling air holes by manual welding; and d) building-up a new tip crown by a LMF (Laser Metal Forming) process,
A method for securely authenticating a user of a portable consumer device, said method comprising: receiving from an access device a dynamic data element and a first set of transactional information; creating an authentication code as a function of at least a password, the dynamic data element, and a subset of the first set of transactional information; and sending the authentication code to the access device, wherein the access device uses the authentication code to authenticate the user by sending an authentication request message to a service provider, wherein the authentication request message contains at least the authentication code and additional information sufficient to allow the service provider to recreate the authentication code, and wherein the service provider responds to the authentication request message by sending an authentication response message indicating if the recreated authentication code corresponds to the authentication code sent in the authentication request message, wherein the password is a small value password for a transaction value below a threshold amount, the small value password being stored in the portable consumer device, thereby allowing the small value password to be used without having to be manually entered into the portable consumer device each time the small value password is used. receiving from an access device a dynamic data element and a first set of transactional information; creating an authentication code as a function of at least a password, the dynamic data element, and a subset of the first set of transactional information; and sending the authentication code to the access device, wherein the access device uses the authentication code to authenticate the user by sending an authentication request message to a service provider, wherein the authentication request message contains at least the authentication code and additional information sufficient to allow the service provider to recreate the authentication code, and wherein the service provider responds to the authentication request message by sending an authentication response message indicating if the recreated authentication code corresponds to the authentication code sent in the authentication request message, wherein the password is a small value password for a transaction value below a threshold amount, the small value password being stored in the portable consumer device, thereby allowing the small value password to be used without having to be manually entered into the portable consumer device each time the small value password is used.
An electrical device comprising: a substrate having a surface, and a plurality of electrically conductive nanowires, each of which has a first end and a second end, wherein the substrate and each of the nanowires are coated with an electrically insulating layer except for the first and second ends of each of the nanowires, the first end is attached to the surface, and the second end is coated with an electrically conductive layer. a substrate having a surface, and a plurality of electrically conductive nanowires, each of which has a first end and a second end, wherein the substrate and each of the nanowires are coated with an electrically insulating layer except for the first and second ends of each of the nanowires, the first end is attached to the surface, and the second end is coated with an electrically conductive layer.
A computing system for executing a task according to different clock rates in order to reduce common mode failures in the computing system, the computing system comprising: at least a first division and a second division (105-N), the first division having a first clock rate and the second division having a second clock rate, the first division and the second division (105-N) each including a respective instrument (110, 115); a first processor configured to execute a task on the first division according to the first clock rate; and a second processor configured to execute the task on the second division (105-N) according to the second clock rate, wherein each respective instrument (110, 115) of the first division and the second division is configured to: determine whether one or more of the divisions is in a trip condition, wherein a trip condition is indicative of an initialization and/or activation of a shutdown and/or actuation procedure, based on detecting a discrepancy of at least one of the first division and the second division; determine whether a division is in a faulted state and is unable to send a trip signal; and actuate an external device based on a determination, based on a voting procedure, that at least one of a trip condition and a faulted state exists. at least a first division and a second division (105-N), the first division having a first clock rate and the second division having a second clock rate, the first division and the second division (105-N) each including a respective instrument (110, 115); a first processor configured to execute a task on the first division according to the first clock rate; and a second processor configured to execute the task on the second division (105-N) according to the second clock rate, wherein each respective instrument (110, 115) of the first division and the second division is configured to: determine whether one or more of the divisions is in a trip condition, wherein a trip condition is indicative of an initialization and/or activation of a shutdown and/or actuation procedure, based on detecting a discrepancy of at least one of the first division and the second division; determine whether a division is in a faulted state and is unable to send a trip signal; and actuate an external device based on a determination, based on a voting procedure, that at least one of a trip condition and a faulted state exists. determine whether one or more of the divisions is in a trip condition, wherein a trip condition is indicative of an initialization and/or activation of a shutdown and/or actuation procedure, based on detecting a discrepancy of at least one of the first division and the second division; determine whether a division is in a faulted state and is unable to send a trip signal; and actuate an external device based on a determination, based on a voting procedure, that at least one of a trip condition and a faulted state exists.