mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus comprising a processor and a memory, the apparatus further including computer-executable instructions stored in the memory of the apparatus which, when executed by the processor of the apparatus , cause the apparatus to: receive, from a hosting node , a resource announcement associated with an original resource at the hosting node ; create an announced resource corresponding to the original resource; receive, from a first subscriber , a first subscription request comprising an identifier of the announced resource, first event notification criteria and a first notification URI; receive, from a second subscriber , a second subscription request comprising the identifier of the announced resource, second event notification criteria and a second notification URI; send, to the hosting node , an aggregated subscription request comprising the identifier of the announced resource, the first and second event notification criteria, and the first and second notification URIs; receive, from the hosting node , a notification of an event corresponding to the first and second event notification criteria; and forward, to the first and second notification URIs, the notification. receive, from a hosting node , a resource announcement associated with an original resource at the hosting node ; create an announced resource corresponding to the original resource; receive, from a first subscriber , a first subscription request comprising an identifier of the announced resource, first event notification criteria and a first notification URI; receive, from a second subscriber , a second subscription request comprising the identifier of the announced resource, second event notification criteria and a second notification URI; send, to the hosting node , an aggregated subscription request comprising the identifier of the announced resource, the first and second event notification criteria, and the first and second notification URIs; receive, from the hosting node , a notification of an event corresponding to the first and second event notification criteria; and forward, to the first and second notification URIs, the notification.
A control arrangement of a wind turbine , which control arrangement comprises - a watchdog comprising a reset module and a trigger module, wherein the watchdog reset module is configured to perform an internal reset when a sign-of-life signal (SoL) is received from a remote communication system within a predetermined time limit (T SoL ), and wherein the watchdog trigger module is configured to issue a watchdog trigger when the predetermined time limit (T SoL ) is exceeded; - a sensor arrangement comprising a number of sensors (S1, S2, ..., Sn) configured to observe local parameters and to report local sensor data; and - a wind turbine controller that initiates a local control sequence in response to the watchdog trigger , which local control sequence is configured to switch between a first mode of operation (N, SP) and a second mode of operation (N, SP) on the basis of the local sensor data. - a watchdog comprising a reset module and a trigger module, wherein the watchdog reset module is configured to perform an internal reset when a sign-of-life signal (SoL) is received from a remote communication system within a predetermined time limit (T SoL ), and wherein the watchdog trigger module is configured to issue a watchdog trigger when the predetermined time limit (T SoL ) is exceeded; the watchdog reset module is configured to perform an internal reset when a sign-of-life signal (SoL) is received from a remote communication system within a predetermined time limit (T SoL ), and wherein the watchdog trigger module is configured to issue a watchdog trigger when the predetermined time limit (T SoL ) is exceeded; - a sensor arrangement comprising a number of sensors (S1, S2, ..., Sn) configured to observe local parameters and to report local sensor data; and - a wind turbine controller that initiates a local control sequence in response to the watchdog trigger , which local control sequence is configured to switch between a first mode of operation (N, SP) and a second mode of operation (N, SP) on the basis of the local sensor data.
A photovoltaic-clad masonry unit comprising: a photovoltaic unit including: a backer board as a rigid support structure; one or more photovoltaic cells supported by the rigid support structure; and a cover disposed above the one or more photovoltaic cells and configured to be secured to the rigid support structure to provide a water resistant enclosure that encloses the one or more photovoltaic cells ; a positive terminal extending from the photovoltaic unit and electrically connected to the one or more photovoltaic cells; and a negative terminal extending from the photovoltaic unit and electrically connected to the one or more photovoltaic cells ; a pass through wire adhered to a surface of the backer board opposite the PV cell ; and a masonry block including a depression on the outward facing side of the block, the photovoltaic unit being secured within the depression ; wherein the pass through wire is configured to pass energy through the block, but is not connected to the one or more PV cells . a photovoltaic unit including: a backer board as a rigid support structure; one or more photovoltaic cells supported by the rigid support structure; and a cover disposed above the one or more photovoltaic cells and configured to be secured to the rigid support structure to provide a water resistant enclosure that encloses the one or more photovoltaic cells ; a positive terminal extending from the photovoltaic unit and electrically connected to the one or more photovoltaic cells; and a negative terminal extending from the photovoltaic unit and electrically connected to the one or more photovoltaic cells ; a pass through wire adhered to a surface of the backer board opposite the PV cell ; and a backer board as a rigid support structure; one or more photovoltaic cells supported by the rigid support structure; and a cover disposed above the one or more photovoltaic cells and configured to be secured to the rigid support structure to provide a water resistant enclosure that encloses the one or more photovoltaic cells ; a positive terminal extending from the photovoltaic unit and electrically connected to the one or more photovoltaic cells; and a negative terminal extending from the photovoltaic unit and electrically connected to the one or more photovoltaic cells ; a pass through wire adhered to a surface of the backer board opposite the PV cell ; and a masonry block including a depression on the outward facing side of the block, the photovoltaic unit being secured within the depression ; wherein the pass through wire is configured to pass energy through the block, but is not connected to the one or more PV cells .
A composition comprising purified truncated recombinant human C1 esterase inhibitor (rhC1-INH) having an amino acid sequence identical to SEQ ID NO:4 having an E165Q mutation, wherein: (i) the purified truncated rhC1-INH has a half-life at least 10, 15, 20, 25, 30, 35, 40, 45, 50, 55, 60, 65, or 70 hours; (ii) the purified truncated rhC1-INH comprises, on average, at least 10, 11, 12, 13, or 14 sialylated glycan residues per molecule and has a half-life similar to or longer than human plasma derived C1 esterase inhibitor; or (iii) the purified truncated rhC1-INH comprises, on average, at least 80% charged glycans per molecule and has a half-life similar to or longer than human plasma derived C1 esterase inhibitor. (i) the purified truncated rhC1-INH has a half-life at least 10, 15, 20, 25, 30, 35, 40, 45, 50, 55, 60, 65, or 70 hours; (ii) the purified truncated rhC1-INH comprises, on average, at least 10, 11, 12, 13, or 14 sialylated glycan residues per molecule and has a half-life similar to or longer than human plasma derived C1 esterase inhibitor; or (iii) the purified truncated rhC1-INH comprises, on average, at least 80% charged glycans per molecule and has a half-life similar to or longer than human plasma derived C1 esterase inhibitor.
A method comprising: receiving, by a user equipment, UE, a first UE identifier, ID, for use when the UE is in an active state ; receiving, by the UE, a second UE ID for use when the UE is in an inactive state ; characterized in that , the first UE ID has a shorter bit length than the second UE ID, and the method further comprising: transitioning, by the UE, from the active state to the inactive state; and using, by the UE, the second UE ID and the first UE ID expires when the UE has transitioned to the inactive state. receiving, by a user equipment, UE, a first UE identifier, ID, for use when the UE is in an active state ; receiving, by the UE, a second UE ID for use when the UE is in an inactive state ; characterized in that , the first UE ID has a shorter bit length than the second UE ID, and the method further comprising: transitioning, by the UE, from the active state to the inactive state; and using, by the UE, the second UE ID and the first UE ID expires when the UE has transitioned to the inactive state. transitioning, by the UE, from the active state to the inactive state; and using, by the UE, the second UE ID and the first UE ID expires when the UE has transitioned to the inactive state.
A processing system, characterized in that the processing system comprises: a determination unit configured to determine an adjustment-required parameter based on training data of a trainee performing walking training in a walking training apparatus , the training data being acquired during the walking training, the adjustment-required parameter being, among parameters that are adjustable in the walking training apparatus , a parameter of which a frequency of adjustments by a training assistant who assists the trainee performing walking training in the walking training apparatus or by an assistant in a hospital other than the training assistant is lower than an adjustment criterion; and an output unit configured to output, during the walking training of the trainee , parameter information indicating the adjustment-required parameter and effect information indicating an adjustment effect that is obtained when the adjustment-required parameter is adjusted. a determination unit configured to determine an adjustment-required parameter based on training data of a trainee performing walking training in a walking training apparatus , the training data being acquired during the walking training, the adjustment-required parameter being, among parameters that are adjustable in the walking training apparatus , a parameter of which a frequency of adjustments by a training assistant who assists the trainee performing walking training in the walking training apparatus or by an assistant in a hospital other than the training assistant is lower than an adjustment criterion; and an output unit configured to output, during the walking training of the trainee , parameter information indicating the adjustment-required parameter and effect information indicating an adjustment effect that is obtained when the adjustment-required parameter is adjusted.
The use of a polysulfide phosphor for upconversion luminescence, wherein a general formula of composition of the polysulfide phosphor is: m A 2 S· n BS· k C 2-x S 3 :D x ; A is one or more than one of Li, Na, K, Rb and Cs, and B is one or more than one of Be, Mg, Ca, Sr, Ba, Zn and Cd; C is one or more than one of La, Gd, Lu, Y, Sc, Al, Ga and Bi; D is one or more than one of Ho, Er, Tm and Pr, optionally co-doped with Mo, W, Ce, Sm, Tb, Yb, Eu or Nd; x=0.0001-2; n=0-0.1, m = 0.8-1.2 and k =0.4-0.6; m=0-0.2, n =0.8-1.2, and k = 0.8-1.2; or m=0-0.2, n = 4.5-5.5, and k =1.8-2.2; wherein when D contains Er, x value is 0.05-2; the phosphor is excitable within an excitation wavelengths range of 1450-1600 nm and/or 780-860 nm; wherein when D contains Ho, x value is 0.02-2 and the phosphor is excitable within an excitation wavelengths range of 1100-1190 nm; wherein when D contains Tm, x value is 0.01-2; the phosphor is excitable within an excitation wavelengths range of 1180-1260 nm and/or 760-850 nm. n=0-0.1, m = 0.8-1.2 and k =0.4-0.6; m=0-0.2, n =0.8-1.2, and k = 0.8-1.2; or m=0-0.2, n = 4.5-5.5, and k =1.8-2.2; wherein when D contains Er, x value is 0.05-2; the phosphor is excitable within an excitation wavelengths range of 1450-1600 nm and/or 780-860 nm; wherein when D contains Ho, x value is 0.02-2 and the phosphor is excitable within an excitation wavelengths range of 1100-1190 nm; wherein when D contains Tm, x value is 0.01-2; the phosphor is excitable within an excitation wavelengths range of 1180-1260 nm and/or 760-850 nm.
Method for self-testing a monitoring device monitoring an integrity status of a suspension member arrangement in an elevator , wherein the monitoring device is configured for generating electric voltages and applying the electric voltages to cords comprised in suspension members of the suspension member arrangement , and wherein the monitoring device is configured for detecting a deterioration in the integrity status based on modifications in the applied electric voltages upon transmission through the cords ; the method comprising: specifically modifying the generated electric voltages in a way such as to systematically induce modifications in the applied electric voltages upon transmission through the cords which, under normal operation conditions of the monitoring device, would be interpreted by the monitoring device as indicating the deterioration in the integrity status; verifying whether the deterioration in the integrity status is correctly detected; and initiating a self-test-failure-action if the deterioration in the integrity status is not correctly detected. specifically modifying the generated electric voltages in a way such as to systematically induce modifications in the applied electric voltages upon transmission through the cords which, under normal operation conditions of the monitoring device, would be interpreted by the monitoring device as indicating the deterioration in the integrity status; verifying whether the deterioration in the integrity status is correctly detected; and initiating a self-test-failure-action if the deterioration in the integrity status is not correctly detected.
An electric parking brake device comprising: pedal state detection means for detecting an operation state of a brake pedal; shift range detection means for detecting a shift range of a shift lever; a parking brake mechanism which can bring a wheel into a braked state or a braking-released state; an operation switch for switching the parking brake mechanism to a braking state or a braking-released state; control means for controlling braking operation of the parking brake mechanism in accordance with an operation of the operation switch; and informing means for providing a driver with a piece of information, wherein when the parking brake mechanism is in the braking state and the operation switch is operated for switching to the braking-released state, the control means brings the parking brake mechanism into the braking-released state on the condition that the control means detects, using the pedal state detection means, that the brake pedal is not depressed and further detects, using the shift range detection means, that the shift range of the shift lever is in a parking range, and determines whether or not the pedal state detection means is broken, and in the case where the pedal state detection means is broken, through use of the informing means, provides the driver with a piece of information for causing the driver to change the shift range of the shift lever to the parking range. pedal state detection means for detecting an operation state of a brake pedal; shift range detection means for detecting a shift range of a shift lever; a parking brake mechanism which can bring a wheel into a braked state or a braking-released state; an operation switch for switching the parking brake mechanism to a braking state or a braking-released state; control means for controlling braking operation of the parking brake mechanism in accordance with an operation of the operation switch; and informing means for providing a driver with a piece of information, wherein when the parking brake mechanism is in the braking state and the operation switch is operated for switching to the braking-released state, the control means brings the parking brake mechanism into the braking-released state on the condition that the control means detects, using the pedal state detection means, that the brake pedal is not depressed and further detects, using the shift range detection means, that the shift range of the shift lever is in a parking range, and determines whether or not the pedal state detection means is broken, and in the case where the pedal state detection means is broken, through use of the informing means, provides the driver with a piece of information for causing the driver to change the shift range of the shift lever to the parking range.
Closure system for a drug container , the interior of which can be accessed via a mouth region designed in the manner of a bottle mouth, wherein the closure system comprises, besides a press-fit cap which can be pushed onto the mouth region and is provided with a sealing element , a securing ring which can be pushed onto said press-fit cap and which, when in a position in which it is pushed completely onto the press-fit cap , can be fixed in a lockable manner on the press-fit cap by means of a number of snap ribs , and wherein the or each snap rib is guided in a corresponding guide slot by a movement of the inner lateral surface of the securing ring relative to a corresponding outer lateral surface of the press-fit cap .
A robot comprising: an arm; and a force detector provided in the arm and configured for detecting a force, wherein the robot is configured so as to move at least one of a first object (EP) and a second object (B) by means of the arm in a direction in which the first object (EP) and the second object (B) are closer to each other, and, if a contact of the first object (EP) with the second object (B) at a position of the second object (B) which is different from an insertion portion (H1, H2) of the second object (B) is determined based on an output of the force detector , to separate the first object (EP) and the second object (B) by moving a control point (T1) of the first object (EP) to a first waiting position, which is a position on a center axis (CA) of the insertion portion (H1, H2), characterized in that : when the contact of the first object (EP) with the second object (B) at a position different from the insertion portion (H1, H2) and the separation of the first object (EP) and the second object (B) have been performed twice or more, at least one of the first object (EP) and the second object (B) is moved to change the first waiting position along a spiral trajectory as seen in the direction in which the objects are closer to each other. an arm; and a force detector provided in the arm and configured for detecting a force, wherein the robot is configured so as to move at least one of a first object (EP) and a second object (B) by means of the arm in a direction in which the first object (EP) and the second object (B) are closer to each other, and, if a contact of the first object (EP) with the second object (B) at a position of the second object (B) which is different from an insertion portion (H1, H2) of the second object (B) is determined based on an output of the force detector , to separate the first object (EP) and the second object (B) by moving a control point (T1) of the first object (EP) to a first waiting position, which is a position on a center axis (CA) of the insertion portion (H1, H2), characterized in that : when the contact of the first object (EP) with the second object (B) at a position different from the insertion portion (H1, H2) and the separation of the first object (EP) and the second object (B) have been performed twice or more, at least one of the first object (EP) and the second object (B) is moved to change the first waiting position along a spiral trajectory as seen in the direction in which the objects are closer to each other.
A current transformer connector (10; 102) for connecting a current transformer of an electrical network to a protection relay via a current transformer data acquisition board (12; 104), the current transformer connector (10; 102) comprising first and second pairs of first and second current contacts , each current contact pair being connectable in use to the current transformer so as to permit current flow from the electrical network through the current contact pairs to the protection relay, wherein each current contact pair is arranged to be in a short circuit configuration, wherein the current transformer connector (10; 102) is configured to receive, in use, said current transformer data acquisition board (12; 104) to permit current to flow from the current transformer of the electrical network through the first and second current contacts to the current transformer data acquisition board (12; 104), wherein the current transformer data acquisition board (12; 104) comprises at least one current channel member (106; 118) with a first current channel member portion and a second current channel member portion , wherein the first current channel member portion protrudes further from an edge of the current transformer data acquisition board (12; 104) than the second current channel member portion , and wherein the second current channel member portion extends from the edge of the current transformer data acquisition board (12; 104) by a first length (Li) and exhibits a first width (Wi) while the first current channel member portion extends from the second current channel member portion by a second length (L 2 ) and exhibits a second width (W 2 ), with the first width (W 1 ) being larger than the second width (W 2 ), and wherein the first current contact in each current contact pair is arranged to be independently moveable relative to the corresponding second current contact so that during initial insertion of the current transformer data acquisition board (12; 104) into the current transformer connector (10; 102) in use the first current contact of the first current contact pair is configured to separate from the second current contact of the first current contact pair due to the insertion of the first current channel member portion of the current channel member (106; 118) to permit breaking of the short circuit configuration of the first current contact pair and making of an electrical connection between the first current contact pair and the current transformer data acquisition board (12; 104) while the second current contact pair remains in the short circuit configuration, and so that during further insertion of the current transformer data acquisition board (12; 104) into the current transformer connector (10; 102) in use the first current contact of the second current contact pair is configured to separate from the second current contact of the second current contact pair due to the insertion of the second current channel member portion of the current channel member (106; 118) to permit breaking of the short circuit configuration of the second current contact pair .