mhurhangee/ep-ind-claims huggingface dataset:
A compiler device arranged for obfuscation of a computer program, the compiler device comprising - a communication interface arranged to receive a computer program representation, - a processor configured to - perform a live variable analysis on the computer program representation, the live variable analysis obtaining liveness regions associated with a set of variables allocated in the computer program representation, define-information indicating where a variable is written, and use-information indicating where a variable is read, - selecting from the set of variables a first variable and a second variable, wherein the second variable is not defined in the liveness region associated with the first variable according to the define-information associated with the second variable, - modifying the computer program representation at locations defined by the define-information and by the use-information associated with the first variable with encoding code configured to encode the first variable using at least the second variable as an encoding parameter. - a communication interface arranged to receive a computer program representation, - a processor configured to - perform a live variable analysis on the computer program representation, the live variable analysis obtaining liveness regions associated with a set of variables allocated in the computer program representation, define-information indicating where a variable is written, and use-information indicating where a variable is read, - selecting from the set of variables a first variable and a second variable, wherein the second variable is not defined in the liveness region associated with the first variable according to the define-information associated with the second variable, - modifying the computer program representation at locations defined by the define-information and by the use-information associated with the first variable with encoding code configured to encode the first variable using at least the second variable as an encoding parameter. - perform a live variable analysis on the computer program representation, the live variable analysis obtaining liveness regions associated with a set of variables allocated in the computer program representation, define-information indicating where a variable is written, and use-information indicating where a variable is read, - selecting from the set of variables a first variable and a second variable, wherein the second variable is not defined in the liveness region associated with the first variable according to the define-information associated with the second variable, - modifying the computer program representation at locations defined by the define-information and by the use-information associated with the first variable with encoding code configured to encode the first variable using at least the second variable as an encoding parameter.
A method of a User Equipment, in the following also referred to as UE, the method comprising: receiving a configuration of a first serving cell and a second serving cell from a network; receiving and/or monitoring a first PDCCH transmitted on the second serving cell, wherein the first PDCCH schedules a first PDSCH transmitted on the first serving cell; and receiving and/or monitoring a second PDCCH transmitted on the second serving cell, wherein the second PDCCH schedules a second PDSCH transmitted on the second serving cell; characterized by: receiving and/or buffering the second PDSCH via a TCI state used for PDCCH quasi co-location indication of a monitored CORESET with the lowest CORESET-ID in the latest slot in which one or more CORESETs are configured to be monitored by the UE, before the UE decodes successfully the second PDCCH; and not receiving and/or buffering the first PDSCH before the UE decodes successfully the first PDCCH. receiving a configuration of a first serving cell and a second serving cell from a network; receiving and/or monitoring a first PDCCH transmitted on the second serving cell, wherein the first PDCCH schedules a first PDSCH transmitted on the first serving cell; and receiving and/or monitoring a second PDCCH transmitted on the second serving cell, wherein the second PDCCH schedules a second PDSCH transmitted on the second serving cell; characterized by: receiving and/or buffering the second PDSCH via a TCI state used for PDCCH quasi co-location indication of a monitored CORESET with the lowest CORESET-ID in the latest slot in which one or more CORESETs are configured to be monitored by the UE, before the UE decodes successfully the second PDCCH; and not receiving and/or buffering the first PDSCH before the UE decodes successfully the first PDCCH. receiving and/or buffering the second PDSCH via a TCI state used for PDCCH quasi co-location indication of a monitored CORESET with the lowest CORESET-ID in the latest slot in which one or more CORESETs are configured to be monitored by the UE, before the UE decodes successfully the second PDCCH; and not receiving and/or buffering the first PDSCH before the UE decodes successfully the first PDCCH.
A mobile crew rest for an aircraft, comprising: an interior crew rest space, and a lower floor, characterised in that the mobile crew rest is a lower deck mobile crew rest container that is loadable and unloadable onto a lower deck of an aircraft and the lower floor comprises a lowerable floor portion configured to be moveable from a raised position in which the lower deck mobile crew rest container is loadable onto the aircraft to a lowered position once the lower deck mobile crew rest container is installed in the lower deck of an aircraft such that in the lowered position the lower floor comprises a first floor surface at a first level and a second floor surface at a second level, the first level being higher than the second level. an interior crew rest space, and a lower floor, characterised in that the mobile crew rest is a lower deck mobile crew rest container that is loadable and unloadable onto a lower deck of an aircraft and the lower floor comprises a lowerable floor portion configured to be moveable from a raised position in which the lower deck mobile crew rest container is loadable onto the aircraft to a lowered position once the lower deck mobile crew rest container is installed in the lower deck of an aircraft such that in the lowered position the lower floor comprises a first floor surface at a first level and a second floor surface at a second level, the first level being higher than the second level.
A computer-implemented method for sending search alert results, comprising: receiving a first query result from a first search engine, wherein the query result is obtained in response to a first query that comprises a first search value for locating resources; forming a first digital signature of a first relevant portion of the resource identified by the first search query results, wherein the first relevant portion comprises content identified by the first search value; receiving a second query result from a second search engine, wherein the query result is obtained in response to a second query that comprises the first search query, and wherein the second search engine is the same as or different from the first search engine; forming a second digital signature of a second relevant portion of the resource identified by the second search query results, wherein the second relevant portion comprises content identified by the first search value; sending a notification to a user in response to a comparison of the first and second digital signatures being different; forming a third digital signature of a schema of the resource identified by the first search query results; and forming a fourth digital signature of a schema of the resource identified by the second search query results, wherein the notification is not sent to the user in response to a comparison of the third and fourth digital signatures being different. receiving a first query result from a first search engine, wherein the query result is obtained in response to a first query that comprises a first search value for locating resources; forming a first digital signature of a first relevant portion of the resource identified by the first search query results, wherein the first relevant portion comprises content identified by the first search value; receiving a second query result from a second search engine, wherein the query result is obtained in response to a second query that comprises the first search query, and wherein the second search engine is the same as or different from the first search engine; forming a second digital signature of a second relevant portion of the resource identified by the second search query results, wherein the second relevant portion comprises content identified by the first search value; sending a notification to a user in response to a comparison of the first and second digital signatures being different; forming a third digital signature of a schema of the resource identified by the first search query results; and forming a fourth digital signature of a schema of the resource identified by the second search query results, wherein the notification is not sent to the user in response to a comparison of the third and fourth digital signatures being different.
An electric motor comprising: a stator positioned lengthwise within and fixed to a case wherein the stator has a stator core, a coil wound around a tooth extending from the stator core, and an insulating member attached to the stator core wherein the insulating member is configured to insulate the coil from the stator core; a wire holding part (35; 36; 37; 38) extending from the insulating member, wherein the wire holding part is configured to hold a wire (L1, L2) substantially within an outer diameter of the insulating member to permit the wire (L1, L2) to connect with a wire connecting part (34b1, 34b2) formed in the insulating member; and a rotor positioned lengthwise along an inner circumference of the stator wherein the rotor is configured to rotate about a motor axis extending lengthwise across the electric motor, wherein the wire holding part further comprises: a coil regulating part (35b; 36b; 37b; 38b) to regulate the position of the coil along the motor axis; and a holding part (35a; 36a; 37a; 38a) for fitting the wire (L1, L2) between the holding part (35a; 36a; 37a; 38a) and the coil regulating part (35b; 36b; 37b; 38b) characterised in that the holding part (35a; 36a; 37a; 38a) faces the coil regulating part (35b; 36b; 37b; 38b) along the motor axis when viewed along the motor axis. a stator positioned lengthwise within and fixed to a case wherein the stator has a stator core, a coil wound around a tooth extending from the stator core, and an insulating member attached to the stator core wherein the insulating member is configured to insulate the coil from the stator core; a wire holding part (35; 36; 37; 38) extending from the insulating member, wherein the wire holding part is configured to hold a wire (L1, L2) substantially within an outer diameter of the insulating member to permit the wire (L1, L2) to connect with a wire connecting part (34b1, 34b2) formed in the insulating member; and a rotor positioned lengthwise along an inner circumference of the stator wherein the rotor is configured to rotate about a motor axis extending lengthwise across the electric motor, wherein the wire holding part further comprises: a coil regulating part (35b; 36b; 37b; 38b) to regulate the position of the coil along the motor axis; and a holding part (35a; 36a; 37a; 38a) for fitting the wire (L1, L2) between the holding part (35a; 36a; 37a; 38a) and the coil regulating part (35b; 36b; 37b; 38b) characterised in that the holding part (35a; 36a; 37a; 38a) faces the coil regulating part (35b; 36b; 37b; 38b) along the motor axis when viewed along the motor axis. a coil regulating part (35b; 36b; 37b; 38b) to regulate the position of the coil along the motor axis; and a holding part (35a; 36a; 37a; 38a) for fitting the wire (L1, L2) between the holding part (35a; 36a; 37a; 38a) and the coil regulating part (35b; 36b; 37b; 38b) characterised in that the holding part (35a; 36a; 37a; 38a) faces the coil regulating part (35b; 36b; 37b; 38b) along the motor axis when viewed along the motor axis.
A network node configured for operation in a wireless communication network, said network node comprising: a communication interface configured for communicating with at least one of: another network node of a same or different type; and a wireless device operating within the wireless communication network; and a processing circuit configured to: determine whether the wireless device is of a first type or a second type with respect to post-gap subframes, where post-gap subframes immediately follow a measurement gap that is preceded by an uplink subframe or a special subframe, and where wireless devices of the first type have no ability or a limited ability to transmit in post-gap subframes, whereas wireless devices of the second type have the ability to transmit in post-gap subframes; and control scheduling of the wireless device for an uplink transmission with respect to post-gap subframes, in dependence on whether the wireless device was determined to be of the first type or of the second type. a communication interface configured for communicating with at least one of: another network node of a same or different type; and a wireless device operating within the wireless communication network; and another network node of a same or different type; and a wireless device operating within the wireless communication network; and a processing circuit configured to: determine whether the wireless device is of a first type or a second type with respect to post-gap subframes, where post-gap subframes immediately follow a measurement gap that is preceded by an uplink subframe or a special subframe, and where wireless devices of the first type have no ability or a limited ability to transmit in post-gap subframes, whereas wireless devices of the second type have the ability to transmit in post-gap subframes; and control scheduling of the wireless device for an uplink transmission with respect to post-gap subframes, in dependence on whether the wireless device was determined to be of the first type or of the second type. determine whether the wireless device is of a first type or a second type with respect to post-gap subframes, where post-gap subframes immediately follow a measurement gap that is preceded by an uplink subframe or a special subframe, and where wireless devices of the first type have no ability or a limited ability to transmit in post-gap subframes, whereas wireless devices of the second type have the ability to transmit in post-gap subframes; and control scheduling of the wireless device for an uplink transmission with respect to post-gap subframes, in dependence on whether the wireless device was determined to be of the first type or of the second type.
A sensor for performing measurement of glucose to be measured included in a sample solution, comprising at least: i) an insulating first substrate; ii) first and second electrodes placed on said first substrate; iii) a reagent layer placed on said first electrode; and iv) a sample solution-holding part contacting said first electrode or said reagent layer and said second electrode, wherein said reagent layer includes extracellular secretion type cytochrome and an enzyme is placed on either said reagent layer or said sample solution-holding part; said enzyme is a flavin adenine dinucleotide-dependent glucose dehydrogenase, and said extracellular secretion type cytochrome is from any of a fungus belonging to genus Aspergillus, Aspergillus terreus or Aspergillus oryzae. i) an insulating first substrate; ii) first and second electrodes placed on said first substrate; iii) a reagent layer placed on said first electrode; and iv) a sample solution-holding part contacting said first electrode or said reagent layer and said second electrode,
An installation method on a wall of the framework structure of a piece of home automation equipment comprising an adjustable fastening system, comprising at least a support and a holding device, the support being able to be secured to the wall, the framework structure comprising a chassis and at least two adjustable fasteners each comprising a mechanical connection device including an adjusting device and a locking device, the framework structure also comprising an attaching device cooperating with the holding device of the support, the adjusting device allowing an adjustment of the chassis of the framework structure along at least two directions that are orthogonal relative to the support, the method comprising the following successive steps: a) fastening at least one support to the wall, b) connecting the attaching device of the framework structure on the holding device of the corresponding support, the chassis of the framework structure thus being self-supported by the support, c) adjusting the position of a first adjustable fastener along two directions relative to a support, and d) locking the position of the first adjustable fastener relative to the chassis of the framework structure, the method being characterized in that the locking step is a step for gripping the adjustable fastener against the chassis of the framework structure and the chassis of the framework structure against the wall. a) fastening at least one support to the wall, b) connecting the attaching device of the framework structure on the holding device of the corresponding support, the chassis of the framework structure thus being self-supported by the support, c) adjusting the position of a first adjustable fastener along two directions relative to a support, and d) locking the position of the first adjustable fastener relative to the chassis of the framework structure,
A dust collecting apparatus of a vacuum cleaner, the dust collecting apparatus comprising: a centrifugal separating portion; a dust receptacle to collect dust which is separated by the centrifugal separating portion; and a filter portion comprising a filter unit separating dust from an air current discharged from the centrifugal separating portion; wherein the filter portion further comprises: a dust removing unit to detach the filter dust caught in the filter unit from the filter unit; and a dust discharge member to forcibly move the filter dust to the upstream of the centrifugal separating portion, characterized in that the filter unit and the dust discharge member are rotated together in association with each other, and the dust removing unit is in stationary state. a centrifugal separating portion; a dust receptacle to collect dust which is separated by the centrifugal separating portion; and a filter portion comprising a filter unit separating dust from an air current discharged from the centrifugal separating portion; wherein the filter portion further comprises: a dust removing unit to detach the filter dust caught in the filter unit from the filter unit; and a dust discharge member to forcibly move the filter dust to the upstream of the centrifugal separating portion, characterized in that the filter unit and the dust discharge member are rotated together in association with each other, and the dust removing unit is in stationary state. a dust removing unit to detach the filter dust caught in the filter unit from the filter unit; and a dust discharge member to forcibly move the filter dust to the upstream of the centrifugal separating portion, characterized in that the filter unit and the dust discharge member are rotated together in association with each other, and the dust removing unit is in stationary state.
A method of assembling an intravascular imaging device, the method comprising: obtaining a support member (230, 330) comprising a body portion including a plurality of recesses longitudinally spaced from one another; positioning a flex circuit (214, 314, 414) around the support member (230, 330) such that the flex circuit (214, 314, 414) is radially spaced from the body portion of the support member (230, 330); and filling a space between the flex circuit (214, 314, 414) and the support member (230, 330) with a backing material through the plurality of recesses of the body portion. obtaining a support member (230, 330) comprising a body portion including a plurality of recesses longitudinally spaced from one another; positioning a flex circuit (214, 314, 414) around the support member (230, 330) such that the flex circuit (214, 314, 414) is radially spaced from the body portion of the support member (230, 330); and filling a space between the flex circuit (214, 314, 414) and the support member (230, 330) with a backing material through the plurality of recesses of the body portion.
A hybrid powertrain including: - a combustion engine operable to output rotational power thereat; - an electric machine arrangement, operable to output rotational power thereat; - a gearbox arrangement for receiving rotational power from at least one of the combustion engine and the electric machine arrangement, the gearbox arrangement being operable to couple corresponding motive power to a load; - a control unit arrangement coupled in communication with said combustion engine, with said electric machine arrangement and with said gearbox arrangement for coordinating their operation; - wherein the gearbox arrangement is operable to provide a plurality of gearing ratios; wherein: - the electric machine arrangement is employed to extend a rotation rate range provided in a given gearing ratio at higher rotation rates prior to a gear change from said given gearing ratio to a gearing ratio subsequent thereto, whereby the electric machine arrangement is the main power source in said higher rotation rates, and wherein: - the electric machine arrangement is also employed to extend a rotation rate range provided in a given gearing ratio at lower rotation rates when accelerating from a standstill, wherein said lower rotation rate corresponds to an output shaft of said electric machine arrangement rotating at a rate in a range of 0 rpm to 1500 rpm. - a combustion engine operable to output rotational power thereat; - an electric machine arrangement, operable to output rotational power thereat; - a gearbox arrangement for receiving rotational power from at least one of the combustion engine and the electric machine arrangement, the gearbox arrangement being operable to couple corresponding motive power to a load; - a control unit arrangement coupled in communication with said combustion engine, with said electric machine arrangement and with said gearbox arrangement for coordinating their operation; - wherein the gearbox arrangement is operable to provide a plurality of gearing ratios; - the electric machine arrangement is employed to extend a rotation rate range provided in a given gearing ratio at higher rotation rates prior to a gear change from said given gearing ratio to a gearing ratio subsequent thereto, whereby the electric machine arrangement is the main power source in said higher rotation rates, - the electric machine arrangement is also employed to extend a rotation rate range provided in a given gearing ratio at lower rotation rates when accelerating from a standstill, wherein said lower rotation rate corresponds to an output shaft of said electric machine arrangement rotating at a rate in a range of 0 rpm to 1500 rpm.