mhurhangee/ep-ind-claims huggingface dataset:
A method of modifying execution of an application on a portable electronic device, said method comprising: displaying, by a portable electronic device that includes a native enterprise application that interacts with a first server-based enterprise application and a second server-based enterprise application, a graphical user interface on a display device of said portable electronic device responsive to execution of the native enterprise application on said portable electronic device by rendering content on said portable electronic device, wherein the content is associated with execution of the first server-based enterprise application on a remote system, and wherein said native enterprise application controls the manner in which said content is accessed and displayed on said display device; requesting, by the portable electronic device, a program module; in response to requesting the program module, receiving, by the portable electronic device, the program module; executing, by the portable electronic device, the program module; modifying at least one feature of said graphical user interface in response to executing the program module on said portable electronic device; and altering data sharing between the first server-based enterprise application and the second server-based enterprise application in response to the execution of the program module by changing or creating rules related to how the enterprise applications share data. displaying, by a portable electronic device that includes a native enterprise application that interacts with a first server-based enterprise application and a second server-based enterprise application, a graphical user interface on a display device of said portable electronic device responsive to execution of the native enterprise application on said portable electronic device by rendering content on said portable electronic device, wherein the content is associated with execution of the first server-based enterprise application on a remote system, and wherein said native enterprise application controls the manner in which said content is accessed and displayed on said display device; requesting, by the portable electronic device, a program module; in response to requesting the program module, receiving, by the portable electronic device, the program module; executing, by the portable electronic device, the program module; modifying at least one feature of said graphical user interface in response to executing the program module on said portable electronic device; and altering data sharing between the first server-based enterprise application and the second server-based enterprise application in response to the execution of the program module by changing or creating rules related to how the enterprise applications share data.
A first node (1, 1') for a wireless communication network (2, 2'), the first node (1, 1') being arranged to communicate with a present serving node (3, 3') and at least one candidate serving node (4, 4'), the first node (1, 1') comprising a served antenna arrangement (9, 9') that is adapted to communicate with said serving nodes (3, 4; 3', 4') by means of at least two electrically adjustable antenna radiation lobes (10, 11; 10', 11'), where the first node (1, 1') is arranged to evaluate communication properties for said serving nodes (3, 4; 3', 4'), wherein the first node (1, 1') is arranged to include antenna gain of the served antenna arrangement (9, 9') when performing said evaluation, wherein the first node (1, 1') is arranged to report said evaluation to the present serving node (3, 3'), and wherein, based on at least said reported evaluation data, the present serving node (3, 3') is arranged to determine whether a candidate serving node (4, 4') is suitable as a new serving node and if a change of serving node is about to take place from the present serving node (3, 3') to an approved candidate serving node (4, 4'), wherein the first node (1, 1') is arranged to be instructed to direct its antenna radiation lobes towards the approved candidate serving node to perform a handover.
A method, comprising: obtaining source data indicative of brainwave activity; performing a first normalizing to produce normalized data, the first normalizing comprising adjusting the source data to increase the dynamic range for power within at least one low power higher frequency range of the frequency spectrum of the source data compared to a second higher power lower frequency range; performing a second normalizing, the second normalizing being applied to the normalized data, to form double normalized data; and analyzing said double normalized data indicative of brainwave activity to determine at least one parameter indicative of sleep state from said analyzing. obtaining source data indicative of brainwave activity; performing a first normalizing to produce normalized data, the first normalizing comprising adjusting the source data to increase the dynamic range for power within at least one low power higher frequency range of the frequency spectrum of the source data compared to a second higher power lower frequency range; performing a second normalizing, the second normalizing being applied to the normalized data, to form double normalized data; and analyzing said double normalized data indicative of brainwave activity to determine at least one parameter indicative of sleep state from said analyzing.
An organic light emitting device comprising an emissive layer, wherein the emissive layer comprises an aggregate emitter, and a monomer emitter wherein the aggregate emitter and the monomer emitter emit by phosphorescence, the emission from the aggregate emitter is lower in energy than the emission from the monomer emitter, and wherein the combined emission of the aggregate emitter and the monomer emitter sufficiently spans the visible spectrum to give a white emission.
A terminus assembly for terminating an optical cable that includes a plastic optical fiber having a tip segment that includes a tip surface, the terminus assembly comprising: a shell that comprises a mating end and includes a cable passage, the cable passage being configured to receive at least a portion of a length of the optical cable therein such that the tip segment of the POF extends within the cable passage; a POF stub held by the shell, the POF stub extending a length from a mating end to a fiber end, the mating end of the POF stub being configured to optically couple with a mating POF of a mating connector, the fiber end of the POF stub comprising a coupling surface, the POF stub being held by the shell such that the fiber end extends within the cable passage of the shell, the coupling surface of the fiber end being configured to be aligned with the tip surface of the POF within the cable passage of the shell such that the POF stub is optically coupled to the POF, wherein the POF stub serves as a forward stop for the POF of the optical cable; and a stub carrier that is held within the cable passage of the shell at the mating end, the stub carrier having a shell end held within the cable passage, and the stub carrier comprising an opening, the POF stub extending through the opening such that the stub carrier supports the POF stub, characterized in that the fiber end of the POF stub extends outwardly from the shell end such that the coupling surface is exterior to the stub carrier. a shell that comprises a mating end and includes a cable passage, the cable passage being configured to receive at least a portion of a length of the optical cable therein such that the tip segment of the POF extends within the cable passage; a POF stub held by the shell, the POF stub extending a length from a mating end to a fiber end, the mating end of the POF stub being configured to optically couple with a mating POF of a mating connector, the fiber end of the POF stub comprising a coupling surface, the POF stub being held by the shell such that the fiber end extends within the cable passage of the shell, the coupling surface of the fiber end being configured to be aligned with the tip surface of the POF within the cable passage of the shell such that the POF stub is optically coupled to the POF, wherein the POF stub serves as a forward stop for the POF of the optical cable; and a stub carrier that is held within the cable passage of the shell at the mating end, the stub carrier having a shell end held within the cable passage, and the stub carrier comprising an opening, the POF stub extending through the opening such that the stub carrier supports the POF stub, characterized in that the fiber end of the POF stub extends outwardly from the shell end such that the coupling surface is exterior to the stub carrier.
An electrical control valve, in particular for an air conditioning compressor, which controls a refrigerant flow from a high-pressure area into a crankcase pressure area, and from the crankcase pressure area into a low-pressure area, comprising: a control piston which in two different positions connects the high-pressure area to the crankcase pressure area and the crankcase pressure area to the low- pressure area; an electric motor which moves the control piston back and forth between the two positions; a sensor which ascertains the position of the control piston moved by the electric motor; and a control unit which, depending on the position of the control piston ascertained by the sensor, controls the refrigerant flow by means of movement of the control piston by the electric motor; characterized in that: the sensor is designed as a Hall sensor and the movement of the control piston is ascertained as a change in a magnetic field, and by further comprising: a permanent magnet arranged at the control piston opposite the Hall sensor. a control piston which in two different positions connects the high-pressure area to the crankcase pressure area and the crankcase pressure area to the low- pressure area; an electric motor which moves the control piston back and forth between the two positions; a sensor which ascertains the position of the control piston moved by the electric motor; and a control unit which, depending on the position of the control piston ascertained by the sensor, controls the refrigerant flow by means of movement of the control piston by the electric motor; characterized in that: the sensor is designed as a Hall sensor and the movement of the control piston is ascertained as a change in a magnetic field, and by further comprising: a permanent magnet arranged at the control piston opposite the Hall sensor. the sensor is designed as a Hall sensor and the movement of the control piston is ascertained as a change in a magnetic field, and by further comprising: a permanent magnet arranged at the control piston opposite the Hall sensor.
An injector or applicator for dispensing a liquid or pasty drug, comprising a housing portion, a piston body supported therein in a longitudinally-displaceable manner, and a closing cap with a cap portion for closing the opening of the injector or applicator and with a connecting portion for connecting the closing cap with the housing portion, the cap portion and the connecting portion being releasably connected by a tear edge, wherein the housing portion comprises an undercut and in that the piston body comprises a protrusion, which are adjusted to one another in such a way that the piston body or a part thereof are retained at the undercut when trying to withdraw the same from the housing portion, characterized in that the piston body comprises a plunger and a piston which is releasably connected with the plunger.
A method of controlling an encrypting touch-sensitive display (22,24), the method comprising: receiving input configuration information from an application; creating a pad zone (72,82, or 92) on a screen (70,80, or 90) to be rendered on the touch-sensitive display (22,24) based on the input configuration information; creating touch areas (76,78 or 84,86, or 94,96) within the pad zone (72,82, or 92) based on the input configuration information, each touch area having a value; assigning an operating mode to the touch areas (76,78 or 84,86, or 94,96) within the pad zone (72,82, or 92) based on the input configuration information, wherein the operating mode is either: (i) secure, for which the value associated with each touch area is not returned to the application on selection of that touch area by a user; or (ii) open, for which the value associated with each touch area is returned to the application on selection of that touch area by a user; providing an option to create a mouse area (74 or 98) outside the pad zone (72 or 92) on the screen (70,90) to be rendered on the touch-sensitive display (22,24), but only where the operating mode of the touch areas (76,78 or 94,96) within the pad zone (72,92) is the open mode, wherein the mouse area (74 or 98) operates in a further operating mode such that, responsive to a touch selection by a user within the mouse area (74 or 98), a mouse click is generated and selectively presented to the application via an operating system input queue. receiving input configuration information from an application; creating a pad zone (72,82, or 92) on a screen (70,80, or 90) to be rendered on the touch-sensitive display (22,24) based on the input configuration information; creating touch areas (76,78 or 84,86, or 94,96) within the pad zone (72,82, or 92) based on the input configuration information, each touch area having a value; assigning an operating mode to the touch areas (76,78 or 84,86, or 94,96) within the pad zone (72,82, or 92) based on the input configuration information, wherein the operating mode is either: (i) secure, for which the value associated with each touch area is not returned to the application on selection of that touch area by a user; or (ii) open, for which the value associated with each touch area is returned to the application on selection of that touch area by a user; providing an option to create a mouse area (74 or 98) outside the pad zone (72 or 92) on the screen (70,90) to be rendered on the touch-sensitive display (22,24), but only where the operating mode of the touch areas (76,78 or 94,96) within the pad zone (72,92) is the open mode, wherein the mouse area (74 or 98) operates in a further operating mode such that, responsive to a touch selection by a user within the mouse area (74 or 98), a mouse click is generated and selectively presented to the application via an operating system input queue.
A protected nucleoside represented by formula: wherein B is a natural or modified nucleoside base; R 1 and R 2 are each independently H or a protecting group that can be removed for deprotection under acidic, basic, or neutral conditions; F-protector is O(CH 2) n (CF 2) m CF 3 when the protected moiety of nucleoside base B is O, and is NH(C=O)(CH 2) n (CF 2) m CF 3 when the protected moiety of nucleoside base B is N, wherein n is 1 or 2 and m is an integer of 1 to 20; Y is H, OH, a halogen, OCH 3, methoxyethyl, CN, CF 3, or a hydroxy group protected with an acyl protecting group, an ether protecting group, or a silyl protecting group; and Z is H, an alkyl, an O-alkyl, an N-alkyl, or a halogen, or forms a Z-Y bond with Y, provided that the compound is not (2R,3R,4S,5R)-2-[6-amino-2-(2,2,3,3,3-pentafluoropropoxy)-9H-purin-9-yl]-5-(hydroxymethyl) tetrahydrofuran-3,4-diol. B is a natural or modified nucleoside base; R 1 and R 2 are each independently H or a protecting group that can be removed for deprotection under acidic, basic, or neutral conditions; F-protector is O(CH 2) n (CF 2) m CF 3 when the protected moiety of nucleoside base B is O, and is NH(C=O)(CH 2) n (CF 2) m CF 3 when the protected moiety of nucleoside base B is N, wherein n is 1 or 2 and m is an integer of 1 to 20; Y is H, OH, a halogen, OCH 3, methoxyethyl, CN, CF 3, or a hydroxy group protected with an acyl protecting group, an ether protecting group, or a silyl protecting group; and Z is H, an alkyl, an O-alkyl, an N-alkyl, or a halogen, or forms a Z-Y bond with Y, provided that the compound is not (2R,3R,4S,5R)-2-[6-amino-2-(2,2,3,3,3-pentafluoropropoxy)-9H-purin-9-yl]-5-(hydroxymethyl) tetrahydrofuran-3,4-diol.
A magnetic testing method comprising: applying a first magnetic field to a test object; applying a second AC magnetic field to the test object; and detecting a flaw F to be detected based on leakage flux produced by the application of the magnetic fields, wherein the first magnetic field is a rotating bias magnetic field which is excited by using an AC current as an exciting current, and the second AC magnetic field is a rotating AC magnetic field which is excited by using a superimposed AC current in which a first AC current of the same frequency as that of the AC current that is the exciting current for the rotating bias magnetic field and a second AC current of a frequency higher than that of the first AC current are superimposed as an exciting current and which is 90 degrees out of phase with respect to the rotating bias magnetic field. applying a first magnetic field to a test object; applying a second AC magnetic field to the test object; and detecting a flaw F to be detected based on leakage flux produced by the application of the magnetic fields, wherein the first magnetic field is a rotating bias magnetic field which is excited by using an AC current as an exciting current, and the second AC magnetic field is a rotating AC magnetic field which is excited by using a superimposed AC current in which a first AC current of the same frequency as that of the AC current that is the exciting current for the rotating bias magnetic field and a second AC current of a frequency higher than that of the first AC current are superimposed as an exciting current and which is 90 degrees out of phase with respect to the rotating bias magnetic field.
A method for controlling a powertrain test stand comprising a driving machine and a driven machine (3, 3'), wherein a torque supplied by the driving machine is controlled, a reference variable (M x) for controlling the torque of the driving machine in order to dampen vibrations between the driving machine and the driven machine (3, 3') being modified depending on a current speed (n ist) of the driving machine in relation to a predefined value (M soll), characterized in that the reference variable (M x) is determined from a tire model of a virtual tire.
A wireless communication method, comprising: receiving, by a terminal device, a first command transmitted by a network device, wherein the first command is used for deactivating a first state, wherein the first state corresponds to at least one configured grant, CG, configuration; and transmitting, by the terminal device, a feedback media access control, MAC, control element, CE, of the first command to the network device, characterized in that: the feedback MAC CE contains first indication information and feedback information of the first state, wherein the first indication information is used for indicating that the feedback MAC CE is feedback of the terminal device on deactivation of a state, and the method further comprises receiving, by the terminal device, a state table configured by the network device, wherein the state table contains a plurality of states, and wherein each of the plurality of states is one of an activation state and a deactivation state and corresponds to a state index, and each state corresponds to one or more CG configurations. receiving, by a terminal device, a first command transmitted by a network device, wherein the first command is used for deactivating a first state, wherein the first state corresponds to at least one configured grant, CG, configuration; and transmitting, by the terminal device, a feedback media access control, MAC, control element, CE, of the first command to the network device, characterized in that: the feedback MAC CE contains first indication information and feedback information of the first state, wherein the first indication information is used for indicating that the feedback MAC CE is feedback of the terminal device on deactivation of a state, and the method further comprises receiving, by the terminal device, a state table configured by the network device, wherein the state table contains a plurality of states, and wherein each of the plurality of states is one of an activation state and a deactivation state and corresponds to a state index, and each state corresponds to one or more CG configurations. the feedback MAC CE contains first indication information and feedback information of the first state, wherein the first indication information is used for indicating that the feedback MAC CE is feedback of the terminal device on deactivation of a state, and the method further comprises receiving, by the terminal device, a state table configured by the network device, wherein the state table contains a plurality of states, and wherein each of the plurality of states is one of an activation state and a deactivation state and corresponds to a state index, and each state corresponds to one or more CG configurations.
A method of recovering a dielectric fluid used for immersion cooling of at least one electronic device, the method comprising: filtering the dielectric fluid to remove a first group of solid contaminants; distilling the filtered dielectric fluid in at least one distillation tank to produce a vaporized dielectric fluid; separating the vaporized dielectric fluid from less volatile contaminants, wherein the vaporized dielectric fluid is introduced as a condensate into a circulation tank; circulating the condensate by pumping the condensate through the circulation tank through at least one filter (206, 207, 208); filtering the circulating condensate using at least one filter (206, 207, 208) disposed to remove a second group of contaminants; and returning the filtered condensate to the circulation tank, wherein the at least one distillation tank comprises a first distillation tank in fluid communication with a second distillation tank and producing and separating the vaporized dielectric fluid comprises: heating dielectric fluid in the first distillation tank to a first calibrated temperature to vaporize the dielectric fluid; collecting the condensate of the vaporized dielectric fluid in the second distillation tank; and heating the collected condensate in the second distillation tank to a second calibrated temperature to vaporize the collected condensate. filtering the dielectric fluid to remove a first group of solid contaminants; distilling the filtered dielectric fluid in at least one distillation tank to produce a vaporized dielectric fluid; separating the vaporized dielectric fluid from less volatile contaminants, wherein the vaporized dielectric fluid is introduced as a condensate into a circulation tank; circulating the condensate by pumping the condensate through the circulation tank through at least one filter (206, 207, 208); filtering the circulating condensate using at least one filter (206, 207, 208) disposed to remove a second group of contaminants; and returning the filtered condensate to the circulation tank, heating dielectric fluid in the first distillation tank to a first calibrated temperature to vaporize the dielectric fluid; collecting the condensate of the vaporized dielectric fluid in the second distillation tank; and heating the collected condensate in the second distillation tank to a second calibrated temperature to vaporize the collected condensate.