mhurhangee/ep-ind-claims huggingface dataset:
A perforated film composition, comprising at least three layers, and wherein at least one layer is an inner layer with a lower softening and/or melting temperature, as compared with the respective softening and/or melting temperatures of at least two outer layers, located at opposite surfaces of the inner layer, and wherein, when the film composition is exposed to an elevated temperature, the at least one inner layer softens or melts to such an extent, that upon exposure to a compression force, a sufficient number of perforations are sealed in the inner layer, to impart an increased moisture barrier to the film composition, and wherein, the layers of the film composition have perforations with a common center, and wherein each of the outer layers is formed from a film comprising at least one thermoplastic polymer, or formed from a foamed thermoplastic polymer, and wherein the inner layer is formed from a film comprising at least one thermoplastic polymer, or formed from a foamed thermoplastic polymer.
An aircraft comprising - a fuselage, - a wing attached to the fuselage, - a wing tip device attached to a wing end of the wing, - at least one additional wing-like element (14,52) having a wing root, a wing leading edge and a wing trailing edge, and - a passive torque control device having a rotatable interface means, wherein the torque control device is adapted for rotatably supporting the wing root of the wing-like element (14, 52) on the interface means under creation of a rotational axis (16, 54) extending from the interface means into the wing-like element (14, 52), about which rotational axis (16, 54) the wing-like element is rotatable, wherein the wing-like element (14, 52) is adapted to induce a rotation around the rotational axis (16, 54) in an air flow, wherein the torque control device is adapted to limit the degree of rotation depending on a torque introduced into the interface means by the wing-like element (14, 52) and wherein the wing root of the at least one wing-like element (14, 52) is coupled with the wing tip device or the fuselage through the torque control device such that the leading edge extends into an airflow surrounding the aircraft. - a fuselage, - a wing attached to the fuselage, - a wing tip device attached to a wing end of the wing, - at least one additional wing-like element (14,52) having a wing root, a wing leading edge and a wing trailing edge, and - a passive torque control device having a rotatable interface means,
A communications device (401, 402, 403, UE A) for device-to-device communication, wherein the communications device is configured to operate in a mobile telecommunication system, the mobile telecommunication system providing a wireless interface, wherein the communications device is operable to transmit signals using resources of the wireless interface and in accordance with a device-to-device communication protocol by transmitting broadcast messages using resources of a first pool of resources; and transmitting a unicast message using resources of a second pool of resources (710, 1310), the second pool of resources being separate from the first pool of resources, wherein transmitting the unicast message comprises selecting, if the unicast message is to a first other communications device (UE B), a first sub-pool of the second pool of resources (710, 1310) dedicated for the transmission of unicast messages between the communications device and the first other communications device, and selecting, if the unicast message is to a second other communications device (UE C), a second sub-pool of the second pool of resources (710, 1310) dedicated for the transmission of unicast messages between the communications device and the second other communications device, and transmitting the message using the selected resources, wherein the first sub-pool and the second sub-pool being separate from each other. transmitting broadcast messages using resources of a first pool of resources; and transmitting a unicast message using resources of a second pool of resources (710, 1310),
A delivery device for administering an active substance to a subject in the form of a solid form structure (2,90), the device comprising a first housing having a plurality of first chambers located therein adapted to accommodate respective ones of the solid form structures (2,90), a second housing (12,51) having a plurality of second chambers, and a plurality of urging means located in the respective second chambers for urging the solid form structures (2,90) through the first chambers to penetrate the skin of the subject, characterised in that a first membrane Is located between the first and second chambers (8,16) for sealably isolating each first chamber from the second chambers, and the first membrane is deformable into each first chamber under the action of the corresponding urging means for urging the corresponding solid form structure (2,90) through the first chamber.
A subscriber terminal device for key event encryption processing, at least temporarily implemented by a computer, comprising: a mode switching unit switching to an encryption PIN mode based on a control command received from a remote application server; a code conversion unit converting a key code, which is input in the encryption PIN mode, into a special key code and transmitting the converted special key code to the remote application server; and an encryption processing unit receiving a request for a pin code corresponding to the special key code from the remote application server through a secure communication channel and performing control such that the pin code stored in the subscriber terminal device is transmitted to the remote application server through the secure communication channel in response to the request, wherein the remote application server sends a pin code request command (getPin) comprising a request for the pin code through the secure communication channel in order to respond to the special key code received from the encryption processing unit, wherein the subscriber terminal device determines whether a session connection with the remote application server is normal, and generates a hybrid control command for controlling a rendering at a renderer if the session connection is not smooth. a mode switching unit switching to an encryption PIN mode based on a control command received from a remote application server; a code conversion unit converting a key code, which is input in the encryption PIN mode, into a special key code and transmitting the converted special key code to the remote application server; and an encryption processing unit receiving a request for a pin code corresponding to the special key code from the remote application server through a secure communication channel and performing control such that the pin code stored in the subscriber terminal device is transmitted to the remote application server through the secure communication channel in response to the request, wherein the remote application server sends a pin code request command (getPin) comprising a request for the pin code through the secure communication channel in order to respond to the special key code received from the encryption processing unit, wherein the subscriber terminal device determines whether a session connection with the remote application server is normal, and generates a hybrid control command for controlling a rendering at a renderer if the session connection is not smooth.
A processor, comprising: a first prefetcher that prefetches data in response to memory accesses; a second prefetcher that prefetches data in response to memory accesses; wherein each of the memory accesses has an associated memory access type, MAT, of a plurality of predetermined memory access types, MATs; a table that holds: first scores that indicate effectiveness of the first prefetcher to prefetch data with respect to the plurality of predetermined MATs; and second scores that indicate effectiveness of the second prefetcher to prefetch data with respect to the plurality of predetermined MATs; and wherein the first and second prefetchers (102-0, 102-1) are configured to selectively defer to one another with respect to data prefetches based on their relative scores in the table and the respectively associated MATs of the memory accesses; and characterized in that the first prefetcher is configured to selectively defer to the second prefetcher when a difference between the second score and the first score of the associated MAT is greater than a threshold. a first prefetcher that prefetches data in response to memory accesses; a second prefetcher that prefetches data in response to memory accesses; wherein each of the memory accesses has an associated memory access type, MAT, of a plurality of predetermined memory access types, MATs; a table that holds: first scores that indicate effectiveness of the first prefetcher to prefetch data with respect to the plurality of predetermined MATs; and second scores that indicate effectiveness of the second prefetcher to prefetch data with respect to the plurality of predetermined MATs; and first scores that indicate effectiveness of the first prefetcher to prefetch data with respect to the plurality of predetermined MATs; and second scores that indicate effectiveness of the second prefetcher to prefetch data with respect to the plurality of predetermined MATs; and wherein the first and second prefetchers (102-0, 102-1) are configured to selectively defer to one another with respect to data prefetches based on their relative scores in the table and the respectively associated MATs of the memory accesses; and characterized in that the first prefetcher is configured to selectively defer to the second prefetcher when a difference between the second score and the first score of the associated MAT is greater than a threshold.
A microwave wire mesh oven comprising: a microwave oven cavity; a heating element; and a magnetron configured to generate microwaves; wherein some of the generated microwaves impinge on the heating element; characterised in that: the microwave oven further comprises a conductor (208, 210) disposed in the oven cavity and electrically connecting the heating element to a power supply; the heating element is a wire mesh element positioned to radiate black body radiation into the microwave oven cavity; and a power supply filter in electrical connection with the wire mesh element, wherein the power supply filter removes microwave energy that impinges on the wire mesh element. a microwave oven cavity; a heating element; and a magnetron configured to generate microwaves; wherein some of the generated microwaves impinge on the heating element; characterised in that: the microwave oven further comprises a conductor (208, 210) disposed in the oven cavity and electrically connecting the heating element to a power supply; the heating element is a wire mesh element positioned to radiate black body radiation into the microwave oven cavity; and a power supply filter in electrical connection with the wire mesh element, wherein the power supply filter removes microwave energy that impinges on the wire mesh element. the microwave oven further comprises a conductor (208, 210) disposed in the oven cavity and electrically connecting the heating element to a power supply; the heating element is a wire mesh element positioned to radiate black body radiation into the microwave oven cavity; and a power supply filter in electrical connection with the wire mesh element, wherein the power supply filter removes microwave energy that impinges on the wire mesh element.
A print substance cartridge for a printing device, comprising: a supply of print substance for the printing device; a non-volatile memory storing a plurality of passwords and/or a cryptographic key from which the passwords are able to be generated; and logic to permit retrieval of a predetermined maximum number of the passwords, less than a total number of the passwords, from the non-volatile memory, to authenticate the print substance cartridge within the printing device; wherein the print substance cartridge further comprises: a non-volatile memory storing a plurality of one-way hash values of the passwords, wherein the print substance cartridge is to receive a request from a host device for a one-way hash value of the plurality of hash values and to send the one-way hash value to the device, wherein a request for a password is received prior to or after the request for a one-way hash value is received. a supply of print substance for the printing device; a non-volatile memory storing a plurality of passwords and/or a cryptographic key from which the passwords are able to be generated; and logic to permit retrieval of a predetermined maximum number of the passwords, less than a total number of the passwords, from the non-volatile memory, to authenticate the print substance cartridge within the printing device; wherein the print substance cartridge further comprises: a non-volatile memory storing a plurality of one-way hash values of the passwords, wherein the print substance cartridge is to receive a request from a host device for a one-way hash value of the plurality of hash values and to send the one-way hash value to the device, wherein a request for a password is received prior to or after the request for a one-way hash value is received. a non-volatile memory storing a plurality of one-way hash values of the passwords, wherein the print substance cartridge is to receive a request from a host device for a one-way hash value of the plurality of hash values and to send the one-way hash value to the device, wherein a request for a password is received prior to or after the request for a one-way hash value is received.
A method for locating at least two sources (E 1, E 2) emitting electromagnetic pulses in an environment, the environment comprising at least two reflectors (S 1, S 2), the method comprising the following steps: - receiving, by a detector, for each source (E 1, E 2) to be located, for an operating duration of the detector, at least one same emitted pulse, received on the one hand directly from said source (E 1, E 2) and received on the other hand by reflection on one of the reflectors (S 1, S 2), - measuring the direction of arrival (Θ k y), the date of arrival (t) and at least one invariant characteristic (CTI j x) of each received pulse, characterized in that the method further comprises the following steps: - identification, among the received pulses, of the pulses received directly and the pulses received by reflection, - grouping by pairs of pulses received directly with pulses received by reflection, the pulses of each pair having the same invariant characteristics (CTI j x) and different directions of arrival (Θ k y), - calculating, for each pair, the difference between the date of arrival (t) of the pulse received by reflection relative to the date of arrival (t) of the pulse received directly, and - determining the distance (d) of each source (E 1, E 2) from the detector from calculated differences in dates of arrival and from the directions of arrival (Θ k y) of the pulses of each pair. - receiving, by a detector, for each source (E 1, E 2) to be located, for an operating duration of the detector, at least one same emitted pulse, received on the one hand directly from said source (E 1, E 2) and received on the other hand by reflection on one of the reflectors (S 1, S 2), - measuring the direction of arrival (Θ k y), the date of arrival (t) and at least one invariant characteristic (CTI j x) of each received pulse, - identification, among the received pulses, of the pulses received directly and the pulses received by reflection, - grouping by pairs of pulses received directly with pulses received by reflection, the pulses of each pair having the same invariant characteristics (CTI j x) and different directions of arrival (Θ k y), - calculating, for each pair, the difference between the date of arrival (t) of the pulse received by reflection relative to the date of arrival (t) of the pulse received directly, and - determining the distance (d) of each source (E 1, E 2) from the detector from calculated differences in dates of arrival and from the directions of arrival (Θ k y) of the pulses of each pair.
Haptic feedback device for a motor vehicle, having: - a mobile part comprising a touch-sensitive surface and at least one vibratory actuator for vibrating the touch-sensitive surface, - a support bearing the touch-sensitive surface and to which the vibratory actuator is fastened, - a fixed part intended to be fastened to the motor vehicle, - at least one asymmetrical damping member (5; 15) at least partially interposed between the mobile part and the fixed part, the asymmetrical damping member (5; 15) being configured to damp the vibration generated by the vibratory actuator more in one direction than in the opposite direction, arranged in that it has an asymmetrical damping member having a first portion configured to damp the vibration generated by the vibratory actuator in one direction and a second portion configured to damp the vibration at least in the opposite direction, the first portion of the asymmetrical damping member being stiffer than the second portion of the asymmetrical damping member the asymmetrical damping member being interposed between the mobile part and the fixed part and fastened to the mobile part and to the fixed part, the asymmetrical damping member exhibiting damping properties that are different in compression to in tension, the asymmetrical damping member damping more in compression than in tension, in that the asymmetrical damping member has a central portion linking the first and the second portion (5a, 5b), and in that the asymmetrical damping member (5; 15) is produced in a single piece. - a mobile part comprising a touch-sensitive surface and at least one vibratory actuator for vibrating the touch-sensitive surface, - a support bearing the touch-sensitive surface and to which the vibratory actuator is fastened, - a fixed part intended to be fastened to the motor vehicle, - at least one asymmetrical damping member (5; 15) at least partially interposed between the mobile part and the fixed part, the asymmetrical damping member (5; 15) being configured to damp the vibration generated by the vibratory actuator more in one direction than in the opposite direction, arranged in that it has an asymmetrical damping member having a first portion configured to damp the vibration generated by the vibratory actuator in one direction and a second portion configured to damp the vibration at least in the opposite direction, the first portion of the asymmetrical damping member being stiffer than the second portion of the asymmetrical damping member the asymmetrical damping member being interposed between the mobile part and the fixed part and fastened to the mobile part and to the fixed part, the asymmetrical damping member exhibiting damping properties that are different in compression to in tension, the asymmetrical damping member damping more in compression than in tension, in that the asymmetrical damping member has a central portion linking the first and the second portion (5a, 5b), and in that the asymmetrical damping member (5; 15) is produced in a single piece.
-14-Methyl-20-oxa-5,7,14,26-tetraazatetracyclo[19.3.1.1(2,6).l(8,12)]-heptacosa-l,2,3,5,8,9,l1,16,21,23-decaene, or a pharmaceutically acceptable salt thereof, for use in treating diffuse intrinsic pontine glioma (DIPG) in a pediatric human subject, wherein the TG02 is administered in combination with radiation therapy and the DIPG is a H3K27M-mutant DIPG.
A positioning method performed by a base station, said method comprising: receiving an Observed Time Difference of Arrival, OTDOA, information request transmitted by a location server; transmitting an OTDOA information response carrying positioning assistance data to the location server, wherein the positioning assistance data includes an indoor/outdoor Positioning Reference Signal, ioPRS, configuration data; wherein the ioPRS is for indoor/outdoor positioning and comprises: a first Positioning Reference Signal, PRS, and a second PRS, wherein the ioPRS configuration data comprises configuration parameters of the first PRS and of the second PRS; wherein Energy Per Resource Element, EPRE, of the first PRS is greater than EPRE of the second PRS; and transmitting downlink signals comprising the ioPRS according to the ioPRS configuration data; wherein the second PRS is mixed and transmitted together with signals of data communication service. receiving an Observed Time Difference of Arrival, OTDOA, information request transmitted by a location server; transmitting an OTDOA information response carrying positioning assistance data to the location server, wherein the positioning assistance data includes an indoor/outdoor Positioning Reference Signal, ioPRS, configuration data; wherein the ioPRS is for indoor/outdoor positioning and comprises: a first Positioning Reference Signal, PRS, and a second PRS, wherein the ioPRS configuration data comprises configuration parameters of the first PRS and of the second PRS; wherein Energy Per Resource Element, EPRE, of the first PRS is greater than EPRE of the second PRS; and transmitting downlink signals comprising the ioPRS according to the ioPRS configuration data; wherein the second PRS is mixed and transmitted together with signals of data communication service.