mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: detecting, by a media receiver, occurrence of a trigger event for causing a content presentation device (106, 200, 300) to abandon a dynamic content modification with respect to a media stream being delivered to the content presentation device (106, 200, 300), wherein detecting the trigger event comprises detecting a change of channel represented by the media stream being delivered to the content presentation device (106, 200, 300); and responsive to detecting the occurrence of the trigger event, encoding, by the media receiver, an abandonment-watermark into the media stream being delivered to the content presentation device (106, 200, 300), wherein the abandonment-watermark is interpretable by the content presentation device (106, 200, 300) to cause the content presentation device (106, 200, 300) to abandon the dynamic content modification. detecting, by a media receiver, occurrence of a trigger event for causing a content presentation device (106, 200, 300) to abandon a dynamic content modification with respect to a media stream being delivered to the content presentation device (106, 200, 300), wherein detecting the trigger event comprises detecting a change of channel represented by the media stream being delivered to the content presentation device (106, 200, 300); and responsive to detecting the occurrence of the trigger event, encoding, by the media receiver, an abandonment-watermark into the media stream being delivered to the content presentation device (106, 200, 300), wherein the abandonment-watermark is interpretable by the content presentation device (106, 200, 300) to cause the content presentation device (106, 200, 300) to abandon the dynamic content modification.
An apparatus, the apparatus comprising: a laser to generate a laser beam; a scanner (50, 86, 88) to scan the laser beam; an implantable device, such as an intraocular lens, having a marker (600a, 600b); a processor operatively coupled to the laser and the scanner (50, 86, 88) to cause the apparatus to generate a fiducial (700a, 700b, 500d1, 500d2) on an anatomical structure of an eye of a patient to enable the marker (600a, 600b) of the implantable device to be placed in a positional relationship relative to the fiducial (700a, 700b, 500d1, 500d2); characterised in that the shape of the fiducial (700a, 700b, 500d1, 500d2) is complementary to the shape of the marker (600a, 600b) and the complementary shapes comprise an empty outline shape and a filled shape that corresponds to and fits within the empty outline shape. a laser to generate a laser beam; a scanner (50, 86, 88) to scan the laser beam; an implantable device, such as an intraocular lens, having a marker (600a, 600b); a processor operatively coupled to the laser and the scanner (50, 86, 88) to cause the apparatus to generate a fiducial (700a, 700b, 500d1, 500d2) on an anatomical structure of an eye of a patient to enable the marker (600a, 600b) of the implantable device to be placed in a positional relationship relative to the fiducial (700a, 700b, 500d1, 500d2); characterised in that the shape of the fiducial (700a, 700b, 500d1, 500d2) is complementary to the shape of the marker (600a, 600b) and the complementary shapes comprise an empty outline shape and a filled shape that corresponds to and fits within the empty outline shape.
A surfactant mixture comprising at least three ionic surfactants which differ in terms of the hydrocarbyl moiety (R 1) (R 2)-CH-CH 2 - and are of the general formula where R 1 is a linear saturated or unsaturated aliphatic hydrocarbyl radical having 10 or 12 carbon atoms, R 2 is a linear saturated or unsaturated aliphatic hydrocarbyl radical having 12 or 14 carbon atoms, where the R 1 and R 2 radicals are selected such that the at least 3 ionic surfactants of the general formula give rise to hydrocarbyl radicals (R 1) (R 2)CHCH 2 -with 24 carbon atoms, 26 carbon atoms and 28 carbon atoms, where the C 24 surfactant of the general formula is present within a range from 40% to 60%, the C 26 surfactant of the general formula within a range from 30% to 50% and the C 28 surfactant of the general formula within a range from 1% to 20%, based on the molar sum of the three surfactants; each A 0 is independently ethylene, propylene or butylene; k is an integer from 1 to 99, X is a branched or unbranched hydrocarbylene group which has 1 to 10 carbon atoms and may be substituted by an OH group; o is 0 or 1; M b+ is a cation; Y a- is a sulfate group, sulfonate group, carboxylate group or phosphate group; b is 1, 2 or 3 and a is 1 or 2. R 1 is a linear saturated or unsaturated aliphatic hydrocarbyl radical having 10 or 12 carbon atoms, R 2 is a linear saturated or unsaturated aliphatic hydrocarbyl radical having 12 or 14 carbon atoms, where the R 1 and R 2 radicals are selected such that the at least 3 ionic surfactants of the general formula give rise to hydrocarbyl radicals (R 1) (R 2)CHCH 2 -with 24 carbon atoms, 26 carbon atoms and 28 carbon atoms, where the C 24 surfactant of the general formula is present within a range from 40% to 60%, the C 26 surfactant of the general formula within a range from 30% to 50% and the C 28 surfactant of the general formula within a range from 1% to 20%, based on the molar sum of the three surfactants; each A 0 is independently ethylene, propylene or butylene; k is an integer from 1 to 99, X is a branched or unbranched hydrocarbylene group which has 1 to 10 carbon atoms and may be substituted by an OH group; o is 0 or 1; M b+ is a cation; Y a- is a sulfate group, sulfonate group, carboxylate group or phosphate group; b is 1, 2 or 3 and a is 1 or 2.
A pseudorange determinator (100; 610) for providing a pseudorange information representing an estimate of a distance between a transmitter and a receiver on the basis of a modulated signal comprising a sequence of symbols, wherein a primary code sequence is modulated in accordance with a secondary code sequence, wherein the pseudorange determinator is configured to step-wisely correlate a portion of a received signal comprising at least two modulation symbols of the secondary code sequence with at least two reference sequences (420,422; 430,432; 434,436; 440,441; 442,443; 444,445; 446,447 or 530,532,534,536,538,540,542,544; 550,552; 554,556, 558,560; 562,564), a first reference sequence representing at least two subsequent symbols of the secondary code sequence having same phases and a second reference sequence representing at least two subsequent symbols of the secondary code sequence having different phases, to step-wisely acquire, in dependence on a result of the correlations, a portion of the secondary code sequence; and wherein the pseudo range determinator is configured to provide the pseudorange information on the basis of an acquisition of a sufficient portion of the secondary code sequence; wherein the pseudorange determinator is configured to determine, in a first step, which reference sequence out of the at least two reference sequences (420,422) is most similar to a first portion of the received signal comprising at least two modulation symbols of the secondary code sequence; and wherein the pseudorange determinator is configured to determine, in a second step, which reference sequence, out of at least two reference sequences (430,432; 434,436) of a second set of reference sequences, is most similar to a second portion of the received signal comprising at least two modulation symbols of the secondary code sequence, wherein the second portion of the received signal overlaps with the first portion of the received signal and the reference sequences of the second set of reference sequences begin with one or more symbols recognized at the end of the first portion of the received signal in the first step; wherein the pseudorange determinator is configured to correlate different portions of the received signal with at least two respective reference sequences, such that one or more modulation symbols of the secondary code sequence are recognized with each correlation step, and such that more and more modulation symbols of the secondary code sequence are recognized within the received modulated signal.
A compounder system, comprising: a rotatable wheel having a vial opening configured for receiving a vial containing a drug; a camera; a first motor configured to rotate the rotatable wheel to move the vial to an imaging position; a second motor configured to rotate the vial while the camera captures images of a label on the vial; and processing circuitry configured to extract a lot number and an expiration date from the images. a rotatable wheel having a vial opening configured for receiving a vial containing a drug; a camera; a first motor configured to rotate the rotatable wheel to move the vial to an imaging position; a second motor configured to rotate the vial while the camera captures images of a label on the vial; and processing circuitry configured to extract a lot number and an expiration date from the images.
An apparatus, comprising: - a screen; - a secure zone, comprising: a non-volatile storage (166, 167) configured to store at least one of a digital certificate and an encryption key; a secure processor configured to execute a task; and a supervisor configured to have access and control access to the at least one of digital certificate and encryption key and control execution of the task by the secure processor, and operable to assume control over an output to the screen while the apparatus is operating in a secure mode and to transfer control over the output to the screen to a non-secure zone while the apparatus is operating in a non-secure mode; and - an indicator operatively controlled by the supervisor. - a screen; - a secure zone, comprising: a non-volatile storage (166, 167) configured to store at least one of a digital certificate and an encryption key; a secure processor configured to execute a task; and a supervisor configured to have access and control access to the at least one of digital certificate and encryption key and control execution of the task by the secure processor, and operable to assume control over an output to the screen while the apparatus is operating in a secure mode and to transfer control over the output to the screen to a non-secure zone while the apparatus is operating in a non-secure mode; and a non-volatile storage (166, 167) configured to store at least one of a digital certificate and an encryption key; a secure processor configured to execute a task; and a supervisor configured to have access and control access to the at least one of digital certificate and encryption key and control execution of the task by the secure processor, and operable to assume control over an output to the screen while the apparatus is operating in a secure mode and to transfer control over the output to the screen to a non-secure zone while the apparatus is operating in a non-secure mode; and - an indicator operatively controlled by the supervisor.
A catalyst composition for producing hydrocarbons comprising: a Fischer-Tropsch synthesis catalyst that contains at least one type of metal exhibiting activity in Fischer-Tropsch reaction and manganese carbonate; and a zeolite serving as a solid acid, wherein the presence of manganese carbonate in the catalyst may be confirmed through a structural analysis by X-ray diffraction, solid acids are those that exhibit Bronsted acidity or Lewis acidity on the solid surface, and those that exhibit activity for homogeneous and heterogeneous acid-catalyzed reactions, and wherein the catalyst composition is obtainable by impregnating manganese carbonate with a Fischer-Tropsch active metal species, followed by drying and then calcination at a temperature in the range of 150 to 350 °C. a Fischer-Tropsch synthesis catalyst that contains at least one type of metal exhibiting activity in Fischer-Tropsch reaction and manganese carbonate; and a zeolite serving as a solid acid, wherein the presence of manganese carbonate in the catalyst may be confirmed through a structural analysis by X-ray diffraction, solid acids are those that exhibit Bronsted acidity or Lewis acidity on the solid surface, and those that exhibit activity for homogeneous and heterogeneous acid-catalyzed reactions, and wherein the catalyst composition is obtainable by impregnating manganese carbonate with a Fischer-Tropsch active metal species, followed by drying and then calcination at a temperature in the range of 150 to 350 °C.
Assembly consisting of a wheel disk and at least one insert (3, 5, 7), the disk comprising at least one opening, said opening being at least partially covered by the insert (3, 5, 7), said insert (3, 5, 7) comprising at least one covering part which is extended from said opening by covering a covering part of the disk, at least one spacing (Δe) being present between said covering parts (31, 21) of the disk (3, 5, 7) and the web, characterized in that along said covering parts (31, 21) of the insert (3, 5, 7) and of the web are interposed retaining means (4, 6, 8), the retaining means (4, 6, 8) being positioned and dimensioned so as to close at least in part the access of chips from said opening to said covering parts (21, 31).
A cooling garment comprising: a vest configured to be worn by a wearer; at least a first shoulder strap (104-1, 304-1) disposed over a first shoulder region of the vest; and one or more pockets on the vest configured to receive one or more icepacks, the one or more pockets including a stretch material on a front portion of the one or more pockets, and the one or more pockets further including a non-stretch material having a lower stretching capacity than the stretch material on a back portion of the one or more pockets.
A brushless synchronous machine with a limiter for main field voltage, the machine comprising: a regulator configured to use a field current to excite main field windings and generate the main field voltage; and a limiter configured to limit the field current to maintain the main field voltage corresponding to the field current below a limit, wherein the limiter receives an automatic voltage regulator set point to control the field current, characterized in that the brushless synchronous machine is configured to determine the field current that corresponds with the maximum recommended or desired main field voltage by using a transfer function and that the limiter is configured to limit the automatic voltage regulator set point used to determine the field current. a regulator configured to use a field current to excite main field windings and generate the main field voltage; and a limiter configured to limit the field current to maintain the main field voltage corresponding to the field current below a limit, wherein the limiter receives an automatic voltage regulator set point to control the field current, characterized in that the brushless synchronous machine is configured to determine the field current that corresponds with the maximum recommended or desired main field voltage by using a transfer function and that the limiter is configured to limit the automatic voltage regulator set point used to determine the field current.
A method for a first User Equipment, in the following also referred to as UE, in a wireless communication system, comprising: the first UE is configured or pre-configured with a sidelink resource pool for sidelink transmission; the first UE is triggered to select resources for a Transport Block, in the following also referred to as TB,; the first UE selects a first resource for transmission of the TB; the first UE selects at least one second resource for Hybrid Automatic Repeat Request-Acknowledgement, in the following also referred to as HARQ-ACK, based retransmission(s) of the TB, wherein the at least one second resource is later than the first resource, and a time gap between each two adjacent resources amongst the first resource and the at least one second resource is larger than or equal to a first time duration; and the first UE transmits a Sidelink Control Information, in the following also referred to as SCI, and the TB on the first resource in a slot to a second UE, wherein the SCI indicates the first resource and the at least one second resource, characterized in that the SCI indicates the at least one second resource by a first field in the SCI, which indicates a number of the at least one second resources, and a time gap field in the SCI, which indicates the time gap between each two adjacent resources amongst the first resource and the at least one second resource. the first UE is configured or pre-configured with a sidelink resource pool for sidelink transmission; the first UE is triggered to select resources for a Transport Block, in the following also referred to as TB,; the first UE selects a first resource for transmission of the TB; the first UE selects at least one second resource for Hybrid Automatic Repeat Request-Acknowledgement, in the following also referred to as HARQ-ACK, based retransmission(s) of the TB, wherein the at least one second resource is later than the first resource, and a time gap between each two adjacent resources amongst the first resource and the at least one second resource is larger than or equal to a first time duration; and the first UE transmits a Sidelink Control Information, in the following also referred to as SCI, and the TB on the first resource in a slot to a second UE, wherein the SCI indicates the first resource and the at least one second resource, characterized in that the SCI indicates the at least one second resource by a first field in the SCI, which indicates a number of the at least one second resources, and a time gap field in the SCI, which indicates the time gap between each two adjacent resources amongst the first resource and the at least one second resource.
A method in a radio access network, RAN, for managing security protection for multicast and/or broadcast services, MBS, the method comprising: receiving, by the RAN and from a core network, CN, a data packet associated with an MBS session; prior to transmitting the data packet to a plurality of user equipment, UEs, determining, by the RAN, whether the data packet is to be transmitted to the plurality of UEs by using multicast or unicast; when the data packet associated with the MBS session is to be transmitted to the plurality of UEs by using multicast, transmitting, by the RAN, the data packet to the plurality of UEs using a first security protection of a plurality of security protections; and when the data packet associated with the MBS session is to be transmitted by using unicast, transmitting, by the RAN, the data packet to a UE of the plurality of UEs using a second security protection of the plurality of security protections. receiving, by the RAN and from a core network, CN, a data packet associated with an MBS session; prior to transmitting the data packet to a plurality of user equipment, UEs, determining, by the RAN, whether the data packet is to be transmitted to the plurality of UEs by using multicast or unicast; when the data packet associated with the MBS session is to be transmitted to the plurality of UEs by using multicast, transmitting, by the RAN, the data packet to the plurality of UEs using a first security protection of a plurality of security protections; and when the data packet associated with the MBS session is to be transmitted by using unicast, transmitting, by the RAN, the data packet to a UE of the plurality of UEs using a second security protection of the plurality of security protections.
An electric shielding enclosure, comprising: a conductive structure (210, 212, 214) enclosing a volume, the conductive structure comprising an edge defining an opening into the volume; and a conductive power pack surface positioned in proximity to the opening and configured to fill at least a part of the opening, the conductive power pack surface comprising a plurality of electrically conductively connected conductive connections (260, 262), the plurality of conductive connections comprising: a first conductive connection electrically coupled at a first point to the conductive power pack surface; and a second conductive connection electrically coupled at a second point to the conductive power pack surface, wherein the second point is located across the opening from the first point, and each of the conductive connections within the conductive connections is electrically coupled to the conductive structure. a conductive structure (210, 212, 214) enclosing a volume, the conductive structure comprising an edge defining an opening into the volume; and a conductive power pack surface positioned in proximity to the opening and configured to fill at least a part of the opening, the conductive power pack surface comprising a plurality of electrically conductively connected conductive connections (260, 262), the plurality of conductive connections comprising: a first conductive connection electrically coupled at a first point to the conductive power pack surface; and a second conductive connection electrically coupled at a second point to the conductive power pack surface, wherein the second point is located across the opening from the first point, and each of the conductive connections within the conductive connections is electrically coupled to the conductive structure. the conductive power pack surface comprising a plurality of electrically conductively connected conductive connections (260, 262), the plurality of conductive connections comprising: a first conductive connection electrically coupled at a first point to the conductive power pack surface; and a second conductive connection electrically coupled at a second point to the conductive power pack surface, wherein the second point is located across the opening from the first point, and a first conductive connection electrically coupled at a first point to the conductive power pack surface; and a second conductive connection electrically coupled at a second point to the conductive power pack surface, wherein the second point is located across the opening from the first point, and each of the conductive connections within the conductive connections is electrically coupled to the conductive structure.