mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: receiving, by one or more processors , a request to operate a vehicle in an autonomous driving mode; in response to receiving the request, accessing protocol data and using the protocol data to assess, by the one or more processors, (i) the status of the vehicle's environment, (ii) the vehicle, and systems of the vehicle, and (iii) a driver of the vehicle; generating, by the one or more processors, a set of tasks based on a plurality of preventative conditions identified from the assessments, wherein a task of the set of tasks includes properly buckling a seat belt, each task of the set of tasks being assigned a priority level; selecting a first task based on the priority levels of the set of tasks; displaying, by the one or more processors on a display of the vehicle, the first task and one or more other tasks of the set of tasks in an ordered sequence; only upon determining that all of the tasks of the set of tasks are completed, allowing, by the one or more processors, the vehicle to switch from a manual driving mode to the autonomous driving mode. receiving, by one or more processors , a request to operate a vehicle in an autonomous driving mode; in response to receiving the request, accessing protocol data and using the protocol data to assess, by the one or more processors, (i) the status of the vehicle's environment, (ii) the vehicle, and systems of the vehicle, and (iii) a driver of the vehicle; generating, by the one or more processors, a set of tasks based on a plurality of preventative conditions identified from the assessments, wherein a task of the set of tasks includes properly buckling a seat belt, each task of the set of tasks being assigned a priority level; selecting a first task based on the priority levels of the set of tasks; displaying, by the one or more processors on a display of the vehicle, the first task and one or more other tasks of the set of tasks in an ordered sequence; only upon determining that all of the tasks of the set of tasks are completed, allowing, by the one or more processors, the vehicle to switch from a manual driving mode to the autonomous driving mode.
A catalyst layer for a fuel cell, comprising a carbon carrier having pores, a catalyst metal carried on the carbon carrier, and a perfluorosulfonic acid-type resin covering the carbon carrier, wherein the crystal length of the carbon carrier is not less than 16 nm and not more than 20 nm, the crystal length of the carbon carrier being a value measured by the Scherrer method using X-ray diffraction, the coverage of the catalyst metal by the perfluorosulfonic acid-type resin is 55% to 65%, the coverage being calculated by the method disclosed in the specification, the primary particle diameter of the carbon carrier is 200 to 700 nm, the primary particle diameter of the carbon carrier being a number average of equivalent circular diameters of 200 to 300 particles of the same type, measured from transmission electron microscope (TEM) or scanning electron microscope (SEM) images with magnification from 50,000 to 1,000,000 times, and a weight ratio of the carbon carrier and the perfluorosulfonic acid-type resin, in carbon carrier : perfluorosulfonic acid-type resin, is 1.0:0.5 to 1.0:1.2. the crystal length of the carbon carrier is not less than 16 nm and not more than 20 nm, the crystal length of the carbon carrier being a value measured by the Scherrer method using X-ray diffraction, the coverage of the catalyst metal by the perfluorosulfonic acid-type resin is 55% to 65%, the coverage being calculated by the method disclosed in the specification, the primary particle diameter of the carbon carrier is 200 to 700 nm, the primary particle diameter of the carbon carrier being a number average of equivalent circular diameters of 200 to 300 particles of the same type, measured from transmission electron microscope (TEM) or scanning electron microscope (SEM) images with magnification from 50,000 to 1,000,000 times, and a weight ratio of the carbon carrier and the perfluorosulfonic acid-type resin, in carbon carrier : perfluorosulfonic acid-type resin, is 1.0:0.5 to 1.0:1.2.
Method of producing uncoated paper having a grammage according to ISO 536 of 50-250 g/m 2 , a Gurley value according to ISO 5636-5 of above 15 s and a stretchability according to ISO 1924-3 in the machine direction of at least 9 %, said method comprising the steps of: a) providing a pulp, preferably sulphate pulp; b) subjecting the pulp to high consistency (HC) refining at a consistency of 25-42 %, wherein the energy supply in the HC refining is at least 100 kWh per ton paper; c) subjecting the pulp from step b) to low consistency (LC) refining at a consistency of 2-6 %, wherein the energy supply in the LC refining is 20-200 kWh per ton paper; d) diluting the pulp from step c) and adding the diluted pulp to a forming wire to obtain a paper web having a dry content of 15-25 %, such as 17-23 %; e) pressing the paper web from step d) to a dry content of 30-50 %, such as 36-46 %; f) drying the paper web from step e); g) compacting the paper web from step f) in a Clupak unit at a moisture content of 20-50 %, such as 30-49 %, such as 35-49 %; h) drying the paper web from step g); and i) calendering the paper web from step h) in a soft nip calender or a long nip calender at a moisture content of 4-20 %, such as 5-12 %, such as 5-10 %, wherein step h) comprises subjecting the paper web to drying in at least one dryer group and wherein the speed of the paper web in the first dryer group of step h) is 8-14 % lower than the speed of the paper web entering the Clupak unit in step g). a) providing a pulp, preferably sulphate pulp; b) subjecting the pulp to high consistency (HC) refining at a consistency of 25-42 %, wherein the energy supply in the HC refining is at least 100 kWh per ton paper; c) subjecting the pulp from step b) to low consistency (LC) refining at a consistency of 2-6 %, wherein the energy supply in the LC refining is 20-200 kWh per ton paper; d) diluting the pulp from step c) and adding the diluted pulp to a forming wire to obtain a paper web having a dry content of 15-25 %, such as 17-23 %; e) pressing the paper web from step d) to a dry content of 30-50 %, such as 36-46 %; f) drying the paper web from step e); g) compacting the paper web from step f) in a Clupak unit at a moisture content of 20-50 %, such as 30-49 %, such as 35-49 %; h) drying the paper web from step g); and i) calendering the paper web from step h) in a soft nip calender or a long nip calender at a moisture content of 4-20 %, such as 5-12 %, such as 5-10 %, wherein step h) comprises subjecting the paper web to drying in at least one dryer group and wherein the speed of the paper web in the first dryer group of step h) is 8-14 % lower than the speed of the paper web entering the Clupak unit in step g).
A method for fingerprint image enhancement, the method comprising: - retrieving (S701) raw fingerprint image data captured by a fingerprint sensor device; - applying (S704) a first spatial two-dimensional low pass filter (302;402) to the raw fingerprint image data and multiplying a first weight (306; 402') to the filtered fingerprint image data to produce a first filtered fingerprint image data set , the first two-dimensional low pass filter comprising at least one set of filter coefficients that is convoluted with the raw fingerprint image data for applying the first spatial two-dimensional low pass filter, - independently applying (S706) a second spatial two-dimensional low pass filter (304;403) to the raw fingerprint image data and multiplying a second weight (308;403') to the filtered fingerprint image data in parallel to applying the first two-dimensional low pass filter, to produce a second filtered fingerprint image data set distinguished from the first filtered fingerprint image data set, the second two-dimensional low pass filter comprising at least one set of filter coefficients that is convoluted with the raw fingerprint image data for applying the second spatial two-dimensional low pass filter, wherein the set of filter coefficients of the second filter is different from the set of filter coefficients of the first filter, - producing (S708) a final enhanced fingerprint image as the sum of the first filtered fingerprint image data set and the second filtered fingerprint image data set. - retrieving (S701) raw fingerprint image data captured by a fingerprint sensor device; - applying (S704) a first spatial two-dimensional low pass filter (302;402) to the raw fingerprint image data and multiplying a first weight (306; 402') to the filtered fingerprint image data to produce a first filtered fingerprint image data set , the first two-dimensional low pass filter comprising at least one set of filter coefficients that is convoluted with the raw fingerprint image data for applying the first spatial two-dimensional low pass filter, - independently applying (S706) a second spatial two-dimensional low pass filter (304;403) to the raw fingerprint image data and multiplying a second weight (308;403') to the filtered fingerprint image data in parallel to applying the first two-dimensional low pass filter, to produce a second filtered fingerprint image data set distinguished from the first filtered fingerprint image data set, the second two-dimensional low pass filter comprising at least one set of filter coefficients that is convoluted with the raw fingerprint image data for applying the second spatial two-dimensional low pass filter, wherein the set of filter coefficients of the second filter is different from the set of filter coefficients of the first filter, - producing (S708) a final enhanced fingerprint image as the sum of the first filtered fingerprint image data set and the second filtered fingerprint image data set.
Method for monitoring the function of a sensor for detecting soot particles in an exhaust gas, wherein the sensor has at least two measuring electrodes , which are exposed to the exhaust gas and which are spaced apart from one another, and a surface on which the measuring electrodes are arranged, and an electrical resistance heater for burning the soot particles accumulated on the measuring electrodes and on the surface , and in particular also has a temperature measuring device for determining the temperature (T) of the sensor , wherein the method comprises the following steps: - heating the sensor using the resistance heater so that soot particles accumulated on the measuring electrodes and on the surface burn; then - waiting for a certain period of time or waiting until the sensor has cooled down to a switch-on temperature, for example to 425°C; then - applying a voltage between the measuring electrodes and determining a first current flow through the measuring electrodes ; then - determining a waiting time from the first current flow, wherein the greater the first current flow, the greater the value determined for the waiting time; then - waiting for the waiting time, wherein the sensor continues to cool down; then - applying a voltage between the measuring electrodes and determining a second current flow through the measuring electrodes ; then - evaluating that the sensor element is in order if the second current flow is lower than a threshold value, for example 5 μA, and evaluating that the sensor is defective if the second current flow is greater than the threshold value. - heating the sensor using the resistance heater so that soot particles accumulated on the measuring electrodes and on the surface burn; then - waiting for a certain period of time or waiting until the sensor has cooled down to a switch-on temperature, for example to 425°C; then - applying a voltage between the measuring electrodes and determining a first current flow through the measuring electrodes ; then - determining a waiting time from the first current flow, wherein the greater the first current flow, the greater the value determined for the waiting time; then - waiting for the waiting time, wherein the sensor continues to cool down; then - applying a voltage between the measuring electrodes and determining a second current flow through the measuring electrodes ; then - evaluating that the sensor element is in order if the second current flow is lower than a threshold value, for example 5 μA, and evaluating that the sensor is defective if the second current flow is greater than the threshold value.
A refrigerating appliance comprising: a cabinet having an inner liner that defines at least one aperture for accessing a corresponding refrigerating compartment ; at least one door operably coupled to the cabinet and operable between open and closed positions , the open position defined by the refrigerating compartment being accessible through the at least one aperture , the closed position being defined by the door engaging at least a portion of the at least one aperture ; a plurality of storage surfaces positioned within the refrigerating compartment , each of the plurality of storage surfaces adapted to receive at least one temporarily stored item ; a scanning apparatus adapted to record data related to the plurality of storage surfaces and the at least one temporarily stored item , wherein a portion of the scanning apparatus is disposed on the at least one door and conducts first and second data capturing phases during a movement of the door , and wherein secondary data recorded during the second data capturing phase is compared against previous data recorded during the first data capturing phase to create a current inventory manifest , and wherein the current inventory manifest is compared with a set of predetermined parameters related to the at least one temporarily stored item to selectively provide an output, characterized in that the plurality of storage surfaces are U-shaped shelves such that the temporarily stored items are continually near an outside perimeter of the U-shaped shelves . a cabinet having an inner liner that defines at least one aperture for accessing a corresponding refrigerating compartment ; at least one door operably coupled to the cabinet and operable between open and closed positions , the open position defined by the refrigerating compartment being accessible through the at least one aperture , the closed position being defined by the door engaging at least a portion of the at least one aperture ; a plurality of storage surfaces positioned within the refrigerating compartment , each of the plurality of storage surfaces adapted to receive at least one temporarily stored item ; a scanning apparatus adapted to record data related to the plurality of storage surfaces and the at least one temporarily stored item , wherein a portion of the scanning apparatus is disposed on the at least one door and conducts first and second data capturing phases during a movement of the door , and wherein secondary data recorded during the second data capturing phase is compared against previous data recorded during the first data capturing phase to create a current inventory manifest , and wherein the current inventory manifest is compared with a set of predetermined parameters related to the at least one temporarily stored item to selectively provide an output, characterized in that the plurality of storage surfaces are U-shaped shelves such that the temporarily stored items are continually near an outside perimeter of the U-shaped shelves .
A system for secure digital assistant integration with web pages, comprising: a data processing system comprising at least one processor to: receive , from a third-party developer device , an intent manifest data structure containing a mapping between a plurality of actions of a digital assistant and a plurality of link templates of an electronic resource developed by the third-party developer device, a link template indicating one or more parameters used to perform a corresponding action; validate , via a validation policy , the intent manifest data structure; store the validated intent manifest data structure; receive , from a data exchange component of an iframe of the electronic resource loaded by a remote client computing device , an identifier of the client computing device that executes the electronic resource; receive a foreground state of the electronic resource from an onsite state sharing application programming interface ; determine a parameter based on the foreground state and the stored intent manifest data structure; select , from a data repository , a data value for the parameter based on the identifier of the client computing device; and provide the data value to an authorization component of the iframe of the electronic resource loaded on the client computing device. receive , from a third-party developer device , an intent manifest data structure containing a mapping between a plurality of actions of a digital assistant and a plurality of link templates of an electronic resource developed by the third-party developer device, a link template indicating one or more parameters used to perform a corresponding action; validate , via a validation policy , the intent manifest data structure; store the validated intent manifest data structure; receive , from a data exchange component of an iframe of the electronic resource loaded by a remote client computing device , an identifier of the client computing device that executes the electronic resource; receive a foreground state of the electronic resource from an onsite state sharing application programming interface ; determine a parameter based on the foreground state and the stored intent manifest data structure; select , from a data repository , a data value for the parameter based on the identifier of the client computing device; and provide the data value to an authorization component of the iframe of the electronic resource loaded on the client computing device.
A method for simultaneously establishing wireless communication for different services via multiple air interfaces at a user equipment, UE, (115-a - 115-g) comprising: receiving a first radio configuration for a first service on a first air interface to a first base station (105-b); receiving a second radio configuration for a second service different from the first service on a second air interface to a second base station, wherein each of the first and the second radio configuration include one or more data radio bearers as well as a measurement configuration; transmitting, based on the first radio configuration and the first measurement configuration, a first measurement report to the first base station (105-b) over the first air interface, the first measurement report comprising signal strength information of at least one of the first air interface and the second air interface; receiving a radio resource control connection reconfiguration message from the first base station in response to the first measurement report; and conducting a service-specific handover based on the first measurement report, wherein the service-specific handover migrates the first radio configuration supporting the first service from the first base station (105-b) to the second base station (140-b), and continuing running the second service on the second radio configuration with the second base station (140-b). receiving a first radio configuration for a first service on a first air interface to a first base station (105-b); receiving a second radio configuration for a second service different from the first service on a second air interface to a second base station, wherein each of the first and the second radio configuration include one or more data radio bearers as well as a measurement configuration; transmitting, based on the first radio configuration and the first measurement configuration, a first measurement report to the first base station (105-b) over the first air interface, the first measurement report comprising signal strength information of at least one of the first air interface and the second air interface; receiving a radio resource control connection reconfiguration message from the first base station in response to the first measurement report; and conducting a service-specific handover based on the first measurement report, wherein the service-specific handover migrates the first radio configuration supporting the first service from the first base station (105-b) to the second base station (140-b), and continuing running the second service on the second radio configuration with the second base station (140-b).
A component of an electrical system or an electrical power system, where (a) a portion or all of the component exhibits or produces an external elevated temperature and the system needs to be thermally insulated to prevent or reduce the loss or transfer of heat from the component into the surrounding environment, (b) a portion or all of the component or something within the component is susceptible to being damaged by exposure to elevated temperatures, or (c) both (a) and (b), said component comprising an electrical system or electrical power system component structure and a thermal insulating structure for thermally insulating at least a portion of said electrical system or electrical power system component structure, with said thermal insulating structure comprising: a mixture comprising an inorganic binder, inorganic filler particles, and water; and a fabric comprising inorganic fibers in the form of a sleeve, said fabric being impregnated with said mixture so as to form a pliable binder sleeve, wherein said pliable binder sleeve is positioned on the exterior of at least a portion of said electrical system or electrical power system component structure. a mixture comprising an inorganic binder, inorganic filler particles, and water; and a fabric comprising inorganic fibers in the form of a sleeve, said fabric being impregnated with said mixture so as to form a pliable binder sleeve, wherein said pliable binder sleeve is positioned on the exterior of at least a portion of said electrical system or electrical power system component structure.
A connection device comprising: a male connector comprising a body with a distal end and a proximal end , and a projection from the body having an external conical surface and an opening located at a distal end of the projection , the opening in fluid communication with a fluid passageway located within the male connector body , the projection having a length L1; and a female connector comprising a body with a distal end and a proximal end and an internal fluid passageway having an internal conical surface configured to sealingly mate with the external conical surface of the male connector and a member within the fluid passageway , characterized in that the member is a bar horizontally positioned a length L2 from the proximal end of the female connector and blocking insertion of the projection past the member , with L1 = L2, such that only a male connector with a projection having the length L1 is fully insertable into the female connector such that the male connector is sealingly mated with the female connector. a male connector comprising a body with a distal end and a proximal end , and a projection from the body having an external conical surface and an opening located at a distal end of the projection , the opening in fluid communication with a fluid passageway located within the male connector body , the projection having a length L1; and a female connector comprising a body with a distal end and a proximal end and an internal fluid passageway having an internal conical surface configured to sealingly mate with the external conical surface of the male connector and a member within the fluid passageway , characterized in that the member is a bar horizontally positioned a length L2 from the proximal end of the female connector and blocking insertion of the projection past the member , with L1 = L2, such that only a male connector with a projection having the length L1 is fully insertable into the female connector such that the male connector is sealingly mated with the female connector.