mhurhangee/patent-ind-claim-en huggingface dataset:
Method for managing the use of a gateway able to interconnect networks, said gateway (GTW) being able to receive requests to access a network from terminals (PC1, PC2, PC3), a maximum number of simultaneous accesses being defined so as to ensure a given quality of service, said method comprising - a step in which the gateway determines a state of all or some of the physical and/or software resources contributing to the communication of data between a terminal and the network - a modifying step in which the maximum number of simultaneous accesses to the network via the gateway varies over time depending on the determined state, the available maximum numbers of simultaneous accesses being strictly higher than one, - a step in which an access request is received from a terminal; - a step in which the access request is authorized or refused depending on the current maximum number of simultaneous accesses. - a step in which the gateway determines a state of all or some of the physical and/or software resources contributing to the communication of data between a terminal and the network - a modifying step in which the maximum number of simultaneous accesses to the network via the gateway varies over time depending on the determined state, the available maximum numbers of simultaneous accesses being strictly higher than one, - a step in which an access request is received from a terminal; - a step in which the access request is authorized or refused depending on the current maximum number of simultaneous accesses.
A method performed by a mobile device, said method comprising: receiving configuration information on physical resources in a wireless communication system, wherein the physical resources are configured into a first part and a second part, the first part comprising one or more allocation units for control information, depending on an aggregation level of resource elements, and data, and the second part comprising one or more allocation units for data; receiving downlink control information in the first part and data transmission; and based on the received downlink control information, deriving an allocation for the data transmission in the first part based on an allocation for the data transmission in the second part and on an allocation for the control information in the first part. receiving configuration information on physical resources in a wireless communication system, wherein the physical resources are configured into a first part and a second part, the first part comprising one or more allocation units for control information, depending on an aggregation level of resource elements, and data, and the second part comprising one or more allocation units for data; receiving downlink control information in the first part and data transmission; and based on the received downlink control information, deriving an allocation for the data transmission in the first part based on an allocation for the data transmission in the second part and on an allocation for the control information in the first part.
A fan blade for a gas turbine engine , the fan blade comprising: an aerofoil portion comprising a leading edge extending from a root to a tip , a distance between the leading edge at the root and the leading edge at the tip defining a blade span , wherein: a leading edge thickness (TLE) is defined as a thickness of a cross-section at a given radius at a location along a camber line (C) that is 9% of the total length of the camber line (C) from the leading edge ; for cross-sections through the aerofoil portion at radii between 50% and 70% of the blade span from a root radius, the leading edge thickness (TLE) comprises a first maximum value (T1max); for cross-sections through the aerofoil portion at radii greater than 70% of the blade span from the root radius, the leading edge thickness (TLE) comprises a second maximum value (T2max); and the second maximum value (T2max) is between 105% and 125% of the first maximum value (T1max). a leading edge thickness (TLE) is defined as a thickness of a cross-section at a given radius at a location along a camber line (C) that is 9% of the total length of the camber line (C) from the leading edge ; for cross-sections through the aerofoil portion at radii between 50% and 70% of the blade span from a root radius, the leading edge thickness (TLE) comprises a first maximum value (T1max); for cross-sections through the aerofoil portion at radii greater than 70% of the blade span from the root radius, the leading edge thickness (TLE) comprises a second maximum value (T2max); and the second maximum value (T2max) is between 105% and 125% of the first maximum value (T1max).
A network locking method for a wireless terminal, the method comprising: sending, by a front-end network-locking module, a locking certificate generation request to a wireless terminal, and generating, by the wireless terminal, a locking certificate according to the locking certificate generation request (S10); signing, by a back-end network-locking module, the locking certificate to generate a signed locking certificate (S20); performing, by the front-end network-locking module, communication interaction with the wireless terminal to send the signed locking certificate to the wireless terminal, for the wireless terminal to perform locking operations (S30), wherein the step of generating, by the wireless terminal, a locking certificate according to the locking certificate generation request comprises: reading locally, by the wireless terminal, hardware feature information which can identify the wireless terminal uniquely, encrypting the hardware feature information using a locking public key locally saved to generate a locking certificate, and returning the locking certificate to the back-end network locking module. sending, by a front-end network-locking module, a locking certificate generation request to a wireless terminal, and generating, by the wireless terminal, a locking certificate according to the locking certificate generation request (S10); signing, by a back-end network-locking module, the locking certificate to generate a signed locking certificate (S20); performing, by the front-end network-locking module, communication interaction with the wireless terminal to send the signed locking certificate to the wireless terminal, for the wireless terminal to perform locking operations (S30), wherein the step of generating, by the wireless terminal, a locking certificate according to the locking certificate generation request comprises: reading locally, by the wireless terminal, hardware feature information which can identify the wireless terminal uniquely, encrypting the hardware feature information using a locking public key locally saved to generate a locking certificate, and returning the locking certificate to the back-end network locking module.
A navigation system for tracking an object, the navigation system comprising: a tracking device being attachable to the object and including a tracking head having a tracking element configured to produce a tracking signal, and wherein the tracking head supports an error indicator including at least one light emitter ; a sensor configured to receive the tracking signal from the tracking element to determine a position of the object; and a computing system configured to: - determine whether the sensor received the tracking signal from the tracking element and - generate an error signal when the sensor does not receive the tracking signal, and said computing system being characterized in that it is further configured to control the error indicator such that: the at least one light emitter is activated to emit a colored light in response to absence of the error signal; and the at least one light emitter is deactivated in response to generation of the error signal. a tracking device being attachable to the object and including a tracking head having a tracking element configured to produce a tracking signal, and wherein the tracking head supports an error indicator including at least one light emitter ; a sensor configured to receive the tracking signal from the tracking element to determine a position of the object; and a computing system configured to: - determine whether the sensor received the tracking signal from the tracking element and - generate an error signal when the sensor does not receive the tracking signal, and - determine whether the sensor received the tracking signal from the tracking element and - generate an error signal when the sensor does not receive the tracking signal, and said computing system being characterized in that it is further configured to control the error indicator such that: the at least one light emitter is activated to emit a colored light in response to absence of the error signal; and the at least one light emitter is deactivated in response to generation of the error signal. the at least one light emitter is activated to emit a colored light in response to absence of the error signal; and the at least one light emitter is deactivated in response to generation of the error signal.
A biological sample imaging device comprising: a liquid flow channel through which a liquid biological sample containing particles flows, the liquid flow channel having, at a predetermined position, an imaging range within which images of the particles contained in the biological sample are taken; a pump configured to cause the biological sample, which has been introduced from a container into the liquid flow channel , to flow in a forward direction from an upstream side toward a downstream side or in a direction reverse to the forward direction; and a pump controller configured to cause the pump to sequentially perform a first operation of causing the biological sample introduced into the liquid flow channel to flow in the forward direction, and a second operation of causing the biological sample to flow in the reverse direction; wherein the biological sample imaging device further comprises: an imaging unit configured to take, within the imaging range, images of the particles contained in the biological sample that remains in the liquid flow channel after the second operation, wherein the imaging unit comprises an imaging cell ; wherein after a predetermined time period has passed, the particles are precipitated at a bottom of the imaging cell , and wherein the imaging unit is configured to take the images of the particles precipitated in the imaging cell . a liquid flow channel through which a liquid biological sample containing particles flows, the liquid flow channel having, at a predetermined position, an imaging range within which images of the particles contained in the biological sample are taken; a pump configured to cause the biological sample, which has been introduced from a container into the liquid flow channel , to flow in a forward direction from an upstream side toward a downstream side or in a direction reverse to the forward direction; and a pump controller configured to cause the pump to sequentially perform a first operation of causing the biological sample introduced into the liquid flow channel to flow in the forward direction, and a second operation of causing the biological sample to flow in the reverse direction; wherein the biological sample imaging device further comprises: an imaging unit configured to take, within the imaging range, images of the particles contained in the biological sample that remains in the liquid flow channel after the second operation, wherein the imaging unit comprises an imaging cell ; wherein after a predetermined time period has passed, the particles are precipitated at a bottom of the imaging cell , and wherein the imaging unit is configured to take the images of the particles precipitated in the imaging cell .
An oral composition in the form of an anhydrous suspension of probiotics in an oily carrier comprising at least one vegetable fat that is solid at ambient temperature and has a saturated fatty acid content of at least 25% by weight of the weight of the vegetable fat wherein said oily carrier is present in a quantity ranging from 75 to 99% by weight of the total weight of the suspension; and said vegetable fat is present in a quantity ranging from 0.5 to 10% by weight of the total weight of the suspension. said oily carrier is present in a quantity ranging from 75 to 99% by weight of the total weight of the suspension; and said vegetable fat is present in a quantity ranging from 0.5 to 10% by weight of the total weight of the suspension.
A composition comprising from 0.05 to 1 % w/w of resins, from 0.05 to 1 % w/w of tannins, and from 0.05 to 3% w/w of polysaccharides.
A compound of Formula II: wherein: X is an atom having a valence of at least 4; L1 is a first linker having a valence of at least 2, optionally comprising a phosphate group; Z1 is a first single-stranded oligonucleotide attached at its 3' terminus to the first linker, optionally comprising a phosphate group; L2 is a second linker having a valence of at least 2; Z2 is a second single-stranded oligonucleotide attached at its 5' terminus to the second linker; N1 comprises a first functional group capable of forming at least one covalent bond with S1; N2 comprises a second functional group capable of forming at least one covalent bond with S2; S1 and S2 are each independently a spacer having a valence of at least 2; [Y1]n1 comprises the first functional moiety and [Y2]n2 comprises the second functional moiety, wherein: Y1 and Y2, at each occurrence, are each independently a functional moiety comprising one or more synthons; n1 and n2 are each independently an integer of at least 1; Y1 and Y2 are the same functional moiety; and Z1 and Z2 are substantially complementary. X is an atom having a valence of at least 4; L1 is a first linker having a valence of at least 2, optionally comprising a phosphate group; Z1 is a first single-stranded oligonucleotide attached at its 3' terminus to the first linker, optionally comprising a phosphate group; L2 is a second linker having a valence of at least 2; Z2 is a second single-stranded oligonucleotide attached at its 5' terminus to the second linker; N1 comprises a first functional group capable of forming at least one covalent bond with S1; N2 comprises a second functional group capable of forming at least one covalent bond with S2; S1 and S2 are each independently a spacer having a valence of at least 2; [Y1]n1 comprises the first functional moiety and [Y2]n2 comprises the second functional moiety, wherein: Y1 and Y2, at each occurrence, are each independently a functional moiety comprising one or more synthons; n1 and n2 are each independently an integer of at least 1; Y1 and Y2 are the same functional moiety; and Z1 and Z2 are substantially complementary. Y1 and Y2, at each occurrence, are each independently a functional moiety comprising one or more synthons; n1 and n2 are each independently an integer of at least 1; Y1 and Y2 are the same functional moiety; and Z1 and Z2 are substantially complementary.
Device for gripping preforms for a heating unit , comprising: - a mandrel defining an axis (X) of rotation of the preforms ; - an end piece mounted at a first end of the mandrel and having a part penetrating into the neck of the preforms ; - means for frictional contact with the preform , which are as one with the end piece , - a heatsink as one with the mandrel and intended to come into contact with the end piece , said heatsink being mounted fixedly on the mandrel, characterized in that the end piece also comprises a cooling part in the axial continuation of the penetrating part , the cooling part having at least one relief for heat exchange in contact with the ambient air, and in that the end piece comprising the cooling part is mounted so as to be able to move on the mandrel . - a mandrel defining an axis (X) of rotation of the preforms ; - an end piece mounted at a first end of the mandrel and having a part penetrating into the neck of the preforms ; - means for frictional contact with the preform , which are as one with the end piece , - a heatsink as one with the mandrel and intended to come into contact with the end piece , said heatsink being mounted fixedly on the mandrel, characterized in that the end piece also comprises a cooling part in the axial continuation of the penetrating part , the cooling part having at least one relief for heat exchange in contact with the ambient air, and in that the end piece comprising the cooling part is mounted so as to be able to move on the mandrel .
An electrically tunable optical filter comprising: a plurality of semi-conducting or dielectric nano-/microparticles, exhibiting properties of electromagnetic resonance in the optical and near-infrared domain, arranged on a plane , characterized in that it further comprises: a layer with electrically adjustable optical index covering the surface formed by said nano-/microparticles and said plane ; a first electrically insulating layer disposed on said layer with electrically adjustable optical index and an electrode disposed on said first electrically insulating layer, a conducting substrate or a conducting layer disposed on the side of said plane opposite said electrode, a first electrical circuit connected on the one hand to said electrode and on the other hand to said conducting layer or conducting substrate, and configured to apply potential difference and to fix a controlled electrical field in the filter . a plurality of semi-conducting or dielectric nano-/microparticles, exhibiting properties of electromagnetic resonance in the optical and near-infrared domain, arranged on a plane , characterized in that it further comprises: a layer with electrically adjustable optical index covering the surface formed by said nano-/microparticles and said plane ; a first electrically insulating layer disposed on said layer with electrically adjustable optical index and an electrode disposed on said first electrically insulating layer, a layer with electrically adjustable optical index covering the surface formed by said nano-/microparticles and said plane ; a first electrically insulating layer disposed on said layer with electrically adjustable optical index and an electrode disposed on said first electrically insulating layer, a conducting substrate or a conducting layer disposed on the side of said plane opposite said electrode, a first electrical circuit connected on the one hand to said electrode and on the other hand to said conducting layer or conducting substrate, and configured to apply potential difference and to fix a controlled electrical field in the filter .
A device for distributing air coming from an air treatment unit, the air distribution device including a main duct intended to extend longitudinally in a passenger compartment of a public transport vehicle, the main duct comprising at least two air outlets intended to open toward the passenger compartment , characterized in that the main duct is formed by a plurality of modules assembled to one another, such that each module includes at least one deflector partly delimiting an air circulation duct opening at one of the air outlets .
Process for processing fibres, wherein • on a carding machine - a carded fibre sliver is produced, - the carded fibre sliver is subjected to preliminary drawing in a draw frame integrated in the carding machine , - the preliminary drawing of the fibre sliver at the carding machine is effected without levelling, - the pre-drawn fibre sliver is deposited in one of first cans (C), - and during changing of the first can (C) at the carding machine the carded fibre sliver is buffered at a sliver loop buffer arranged between the carding machine and the integrated draw frame , • at least 9 or 12 pre-drawn fibre slivers - are fed draftfree from a corresponding number of first cans (C) to a draw frame and - are drawn on the draw frame to form a drawn fibre sliver, and • the drawn fibre sliver - is deposited in one of second cans (C1) and - in the one second can (C1) is fed to a spinning station of an airjet-spinning machine . • on a carding machine - a carded fibre sliver is produced, - the carded fibre sliver is subjected to preliminary drawing in a draw frame integrated in the carding machine , - the preliminary drawing of the fibre sliver at the carding machine is effected without levelling, - the pre-drawn fibre sliver is deposited in one of first cans (C), - and during changing of the first can (C) at the carding machine the carded fibre sliver is buffered at a sliver loop buffer arranged between the carding machine and the integrated draw frame , - a carded fibre sliver is produced, - the carded fibre sliver is subjected to preliminary drawing in a draw frame integrated in the carding machine , - the preliminary drawing of the fibre sliver at the carding machine is effected without levelling, - the pre-drawn fibre sliver is deposited in one of first cans (C), - and during changing of the first can (C) at the carding machine the carded fibre sliver is buffered at a sliver loop buffer arranged between the carding machine and the integrated draw frame , • at least 9 or 12 pre-drawn fibre slivers - are fed draftfree from a corresponding number of first cans (C) to a draw frame and - are drawn on the draw frame to form a drawn fibre sliver, and - are fed draftfree from a corresponding number of first cans (C) to a draw frame and - are drawn on the draw frame to form a drawn fibre sliver, and • the drawn fibre sliver - is deposited in one of second cans (C1) and - in the one second can (C1) is fed to a spinning station of an airjet-spinning machine . - is deposited in one of second cans (C1) and - in the one second can (C1) is fed to a spinning station of an airjet-spinning machine .