mhurhangee/ep-ind-claims huggingface dataset:
A system of analyzing and quantifying a user's posture and gait, said system including two electronic boxes (100, 101, 102), adapted to be integrated into a pair of soles, a first box being adapted to be integrated into a first sole and a second box being adapted to be integrated into a second sole, each box comprising: - an inertial platform (110, 111, 112) configured to generate a set of data on the posture, activity or gait of a user of the pair of soles; - a data processing module (120, 121, 122) configured to pre-process the collected data set according to predefined algorithms and generate information on the posture, activity or gait of a user of the pair of soles; - a data storage module (130, 131, 132) configured to store the information generated by the processing module; - a means of communication (140, 141, 142) configured so that an electronic box of at least one of the soles is adapted to transmit the information generated on the user to an external terminal and/or to the other box of the other sole; - a power source, said system being characterized in that the boxes are configured such that the raw data generated by the inertial platform of a first box undergoes a first processing step by the data processing module of the first box, and then the processed data is transferred to the second box where it is further processed by the data processing module of the second box. - an inertial platform (110, 111, 112) configured to generate a set of data on the posture, activity or gait of a user of the pair of soles; - a data processing module (120, 121, 122) configured to pre-process the collected data set according to predefined algorithms and generate information on the posture, activity or gait of a user of the pair of soles; - a data storage module (130, 131, 132) configured to store the information generated by the processing module; - a means of communication (140, 141, 142) configured so that an electronic box of at least one of the soles is adapted to transmit the information generated on the user to an external terminal and/or to the other box of the other sole; - a power source,
A data transmission method for a network device, comprising: generating a scrambling sequence in accordance with one or more first parameters, the one or more first parameters being determined in accordance with a predefined applied scenario and/or high-layer indication information, wherein the one or more first parameters comprise a Radio Network Temporary Identity, RNTI; scrambling Downlink Control Information, DCI, using the generated scrambling sequence; and transmitting the scrambled DCI to a User Equipment, UE, wherein when a scrambling identifier has been configured, the one or more first parameters further comprise the scrambling identifier, the data transmission method being characterized by the generating the scrambling sequence in accordance with the one or more first parameters comprises: calculating c init scramble through c init scramble = 2 16 ⋅ n RNTI + n ID mod 2 31 or c init scramble = 2 16 ⋅ ⌊ n RNTI / 2 ⌋ + n ID; and generating the scrambling sequence in accordance with c init scramble acquired through calculation, where c init scramble represents a binary number for initializing the scrambling sequence, n RNTI represents the RNTI, and n ID represents the scrambling identifier. generating a scrambling sequence in accordance with one or more first parameters, the one or more first parameters being determined in accordance with a predefined applied scenario and/or high-layer indication information, wherein the one or more first parameters comprise a Radio Network Temporary Identity, RNTI; scrambling Downlink Control Information, DCI, using the generated scrambling sequence; and transmitting the scrambled DCI to a User Equipment, UE, wherein when a scrambling identifier has been configured, the one or more first parameters further comprise the scrambling identifier, the data transmission method being characterized by the generating the scrambling sequence in accordance with the one or more first parameters comprises: calculating c init scramble through c init scramble = 2 16 ⋅ n RNTI + n ID mod 2 31 or c init scramble = 2 16 ⋅ ⌊ n RNTI / 2 ⌋ + n ID; and generating the scrambling sequence in accordance with c init scramble acquired through calculation, where c init scramble represents a binary number for initializing the scrambling sequence, n RNTI represents the RNTI, and n ID represents the scrambling identifier. calculating c init scramble through c init scramble = 2 16 ⋅ n RNTI + n ID mod 2 31 or c init scramble = 2 16 ⋅ ⌊ n RNTI / 2 ⌋ + n ID; and generating the scrambling sequence in accordance with c init scramble acquired through calculation, where c init scramble represents a binary number for initializing the scrambling sequence, n RNTI represents the RNTI, and n ID represents the scrambling identifier.
A marine propulsion unit comprising: a duct including a stator; a propeller including a rim including a rotor disposed at a position that faces the stator and a blade provided radially inward of the rim; a steering shaft that supports the duct such that the duct is steerable; and a motor controller that controls rotational driving of the propeller, a casing (4,4a) that functions as a skeg or cavitation plate provided separately from the steering shaft and that extends along a rotation axis of the propeller, characterized in that the motor controller is disposed in the casing (4,4a). a duct including a stator; a propeller including a rim including a rotor disposed at a position that faces the stator and a blade provided radially inward of the rim; a steering shaft that supports the duct such that the duct is steerable; and a motor controller that controls rotational driving of the propeller, a casing (4,4a) that functions as a skeg or cavitation plate provided separately from the steering shaft and that extends along a rotation axis of the propeller, characterized in that the motor controller is disposed in the casing (4,4a).
A method for producing a polycrystalline transparent ceramic material that has, for light of a wavelength between 600 and 650 nm, a real in-line transmission of > 40% of the theoretical maximum value, characterised in that a ceramic granulated material having a primary grain size of ≤500 nm is produced from a starting powder, which has a primary grain size of < 500 nm, preferably ≤ 300 nm, by means of spray granulation or by means of fluidized-bed granulation or by means of particle coating, in that the ceramic granulated material is mixed with a pressing aid and/or binder and/or lubricant and is compacted by means of cyclical pressing to a green density of ≥ 40% of the theoretical density, wherein the cyclical pressing includes uniaxial pressing or a combination of uniaxial pressing and isostatic pressing, and in that subsequently there follows either pre-sintering and sintering high-temperature isostatic pressing or conventional sintering until a closed porosity occurs and subsequent HIP of the cyclically pressed green body so that the transparent ceramic material that is produced has a density of ≥ 99.8% TD.
A device for sampling a food product, which device is apt to allow the detection of volatile substances and comprises: a punch-shaped collecting element, suitable to penetrate a food product for collecting a sample thereof; said punch-shaped element being made of one single piece and having a porosity suitable to allow the collection of organic volatile substances, characterised in that the device further comprises a main body having a chamber for storing a sample of product,wherein the collecting element is connected to said main body and movable with respect to the latter between a first collecting position, in which it protrudes from said storage chamber for collecting the sample, and a second storage position, in which it is housed in said chamber; and means for the selective opening and closing of said storage chamber, apt to allow protrusion of said collecting element; and wherein, upon use, the volatile substances are confined in said chamber for storing said main body to be then analyzed by means of a suitable instrument.
Mincing machine for mincing a product, in particular for mincing meat, comprising: at least one stationary hole plate (9, 13, 18) and at least one rotating hole plate (11, 12) which interact to mince the product, a rotating cutter head mounted on a shaft, wherein said cutter head is arranged upstream of the hole plates (9, 11, 13, 18) in the conveying direction of the product to be minced in order to interact with a stationary hole plate to mince the product characterised in that an axial gap between the cutter head and the stationary hole plate is adjustable. at least one stationary hole plate (9, 13, 18) and at least one rotating hole plate (11, 12) which interact to mince the product, a rotating cutter head mounted on a shaft, wherein said cutter head is arranged upstream of the hole plates (9, 11, 13, 18) in the conveying direction of the product to be minced in order to interact with a stationary hole plate to mince the product characterised in that an axial gap between the cutter head and the stationary hole plate is adjustable.
An automatic analyzer comprising: a vacuum pump; a vacuum tank connected to the vacuum pump; a vacuum bin connected to the vacuum tank; a unit that includes a plurality of suction nozzles configured to suction liquid from a plurality of reaction containers and that is connected to the vacuum bin; and a hole that is provided in the vacuum tank or the vacuum bin that is in communication with outside and that is used for guiding air from the outside, characterized in that the hole is an open throttle configured to adjust the inflow amount of air from the outside by changing the diameter of the hole, or that the automatic analyzer further comprises an open tube connected to the hole, wherein the open tube is configured to adjust the inflow amount of air from the outside depending on its diameter or length. a vacuum pump; a vacuum tank connected to the vacuum pump; a vacuum bin connected to the vacuum tank; a unit that includes a plurality of suction nozzles configured to suction liquid from a plurality of reaction containers and that is connected to the vacuum bin; and a hole that is provided in the vacuum tank or the vacuum bin that is in communication with outside and that is used for guiding air from the outside, the hole is an open throttle configured to adjust the inflow amount of air from the outside by changing the diameter of the hole, or that the automatic analyzer further comprises an open tube connected to the hole, wherein the open tube is configured to adjust the inflow amount of air from the outside depending on its diameter or length.
A method, comprising: deciding, by a network element, a cover code index; signaling, by the network element, the cover code index to a user equipment; generating, by the network element, a non-orthogonal cover code in a network-specific manner corresponding to the cover code index; and using, by the network element, the non-orthogonal cover code for scrambling at least one transmission. deciding, by a network element, a cover code index; signaling, by the network element, the cover code index to a user equipment; generating, by the network element, a non-orthogonal cover code in a network-specific manner corresponding to the cover code index; and using, by the network element, the non-orthogonal cover code for scrambling at least one transmission.
A gas turbine engine comprising: a core engine defined about an axis, the core engine having a primary exhaust flow path; a fan section driven by the core engine about the axis; an upper duct section defined along the axis to at least partially surround the core engine; and a lower duct section defined along the axis, the lower duct section mateable with the upper duct section along an axial interface to enclose the core engine, to form a bypass duct which at least partially defines an annular secondary fan bypass flow path around the primary flow path; characterised in that the gas turbine engine further comprises: an additively manufactured heat exchanger formed into an internal surface of the upper duct section, wherein the additively manufactured heat exchanger comprises a multiple of fins that extend into the annular secondary fan bypass flow path, at least one of the multiple of fins contains at least one of a multiple of additively manufactured passages, at least one of the multiple of additively manufactured passages of a tailored cross-sectional geometry that correspond with the internal surface; and an additively manufactured tank formed into the lower duct section, the tank in fluid communication with the multiple of additively manufactured passages. a core engine defined about an axis, the core engine having a primary exhaust flow path; a fan section driven by the core engine about the axis; an upper duct section defined along the axis to at least partially surround the core engine; and a lower duct section defined along the axis, the lower duct section mateable with the upper duct section along an axial interface to enclose the core engine, to form a bypass duct which at least partially defines an annular secondary fan bypass flow path around the primary flow path; characterised in that the gas turbine engine further comprises: an additively manufactured heat exchanger formed into an internal surface of the upper duct section, wherein the additively manufactured heat exchanger comprises a multiple of fins that extend into the annular secondary fan bypass flow path, at least one of the multiple of fins contains at least one of a multiple of additively manufactured passages, at least one of the multiple of additively manufactured passages of a tailored cross-sectional geometry that correspond with the internal surface; and an additively manufactured tank formed into the lower duct section, the tank in fluid communication with the multiple of additively manufactured passages. an additively manufactured heat exchanger formed into an internal surface of the upper duct section, wherein the additively manufactured heat exchanger comprises a multiple of fins that extend into the annular secondary fan bypass flow path, at least one of the multiple of fins contains at least one of a multiple of additively manufactured passages, at least one of the multiple of additively manufactured passages of a tailored cross-sectional geometry that correspond with the internal surface; and an additively manufactured tank formed into the lower duct section, the tank in fluid communication with the multiple of additively manufactured passages.
RF reception front end block comprising: - a first substrate comprising a lower side and an upper side, said lower side being equipped with a ground plane, - a second substrate comprising a lower side and an upper side, - an RF integrated front end module integrated onto said second substrate, said module comprising at least one RF component, and - an antenna, characterised in that the second substrate is disposed above the first substrate so as to cover at least partially said first substrate and the antenna is formed by • a first radiating part supported by the first substrate, • a second radiating part supported by the second substrate, • and a third radiating part connecting the first radiating part and the second radiating part. - a first substrate comprising a lower side and an upper side, said lower side being equipped with a ground plane, - a second substrate comprising a lower side and an upper side, - an RF integrated front end module integrated onto said second substrate, said module comprising at least one RF component, and - an antenna, characterised in that the second substrate is disposed above the first substrate so as to cover at least partially said first substrate and the antenna is formed by • a first radiating part supported by the first substrate, • a second radiating part supported by the second substrate, • and a third radiating part connecting the first radiating part and the second radiating part. • a first radiating part supported by the first substrate, • a second radiating part supported by the second substrate, • and a third radiating part connecting the first radiating part and the second radiating part.
A helmet, comprising: an energy absorbing layer; optionally an outer shell arranged outside of the energy absorbing layer;and an attachment device provided for attachment of the helmet to a wearer's head, fixed to the energy absorbing layer and/ or the outer shell by means of at least one fixation member; characterised in that the attachment device is aimed to be at least partly in contact with the top portion of the head or skull of a wearer's head; the helmet further comprises a sliding facilitator, provided inside of the energy absorbing layer and fixed to the attachment device and/ or the inside of the energy absorbing layer for providing slidability between the energy absorbing layer and the attachment device; and that, during an impact, the energy absorbing layer acts as an impact absorber by compressing the energy absorbing layer and the sliding facilitator allows sliding between the attachment device and the energy absorbing layer allowing for a controlled way to absorb rotational energy. an energy absorbing layer; optionally an outer shell arranged outside of the energy absorbing layer;and an attachment device provided for attachment of the helmet to a wearer's head, fixed to the energy absorbing layer and/ or the outer shell by means of at least one fixation member; characterised in that the attachment device is aimed to be at least partly in contact with the top portion of the head or skull of a wearer's head; the helmet further comprises a sliding facilitator, provided inside of the energy absorbing layer and fixed to the attachment device and/ or the inside of the energy absorbing layer for providing slidability between the energy absorbing layer and the attachment device; and that, during an impact, the energy absorbing layer acts as an impact absorber by compressing the energy absorbing layer and the sliding facilitator allows sliding between the attachment device and the energy absorbing layer allowing for a controlled way to absorb rotational energy.
A process for the production of multipage information leaflets or slips, especially suitable for being enclosed with products for medical-pharmaceutical or cosmetic use, said information leaflet provided with a booklet structure comprising two or more pages preferably in paper material and which carry the information related to the product with which they are enclosed, the process characterised in that it comprises in sequence the steps of: - loading and feeding of a ream of sheets, printed on one or both sides; - taking of a single sheet from the ream and applying glue along an edge portion of said single sheet; - multiple folding of the single sheet on itself along lines of folding which are parallel one to the other and transversal to the portion provided with glue to create a folded sheet; - cutting of said folded sheet along the opposite transversal edge portions formed by the folding step to create the multipage information leaflet with the pages connected one to the other only at a joining area defined by the area provided with glue near an edge; - optional pressing of the joining area; - storage and collection of the finished information leaflets and possible rejection of information leaflets non-compliant with production specifications. - loading and feeding of a ream of sheets, printed on one or both sides; - taking of a single sheet from the ream and applying glue along an edge portion of said single sheet; - multiple folding of the single sheet on itself along lines of folding which are parallel one to the other and transversal to the portion provided with glue to create a folded sheet; - cutting of said folded sheet along the opposite transversal edge portions formed by the folding step to create the multipage information leaflet with the pages connected one to the other only at a joining area defined by the area provided with glue near an edge; - optional pressing of the joining area; - storage and collection of the finished information leaflets and possible rejection of information leaflets non-compliant with production specifications.
Method for operating at least one motor vehicle system of a motor vehicle dependent on the driving situation, the method having the steps carried out by a personalising device of the motor vehicle: - identifying a driver of the motor vehicle (24, S2), and - determining at least one further occupant which is located in the motor vehicle (24, S2); wherein the method is characterised by the following steps carried out by the personalising device: - on the basis of an identity of the driver: defining a plurality of driver-specific configuration datasets, wherein each of the defined configuration datasets describes configuration data of in each case one user profile of the identified driver for personalising the at least one motor vehicle system, - on the basis of a result of the determining of the at least one occupant: defining an intention of the determined driver, with which they use the motor vehicle, - on the basis of the defined intention: selecting a personalisation mode (PDPM_1, PDPM_2) from a plurality of personalisation modes (PDPM_1, PDPM_2), wherein the selected personalisation mode (PDPM_1, PDPM_2) pre-determines a partial quantity of the defined driver-specific configuration datasets (32, S11), and - configuring the at least one motor vehicle system on the basis of a driver-specific configuration dataset (32, S9) pre-determined by the selected personalisation mode (PDPM_1, PDPM_2). - identifying a driver of the motor vehicle (24, S2), and - determining at least one further occupant which is located in the motor vehicle (24, S2); - on the basis of an identity of the driver: defining a plurality of driver-specific configuration datasets, wherein each of the defined configuration datasets describes configuration data of in each case one user profile of the identified driver for personalising the at least one motor vehicle system, - on the basis of a result of the determining of the at least one occupant: defining an intention of the determined driver, with which they use the motor vehicle, - on the basis of the defined intention: selecting a personalisation mode (PDPM_1, PDPM_2) from a plurality of personalisation modes (PDPM_1, PDPM_2), wherein the selected personalisation mode (PDPM_1, PDPM_2) pre-determines a partial quantity of the defined driver-specific configuration datasets (32, S11), and - configuring the at least one motor vehicle system on the basis of a driver-specific configuration dataset (32, S9) pre-determined by the selected personalisation mode (PDPM_1, PDPM_2).
A composition consisting essentially of sorbent polymers that adsorb a mediator of inflammation, which sorbent polymers include both (a) polystyrene divinyl benzene copolymer and (b) a polyvinyl pyrrolidone polymer, for use in treating inflammation, including prophylactic treatment of inflammation, wherein said composition is to be enterally administered to a patient in a therapeutically effective dose. for use in treating inflammation, including prophylactic treatment of inflammation, wherein said composition is to be enterally administered to a patient in a therapeutically effective dose.
An immunogenic or vaccine composition comprising an isolated polypeptide having at least 85% sequence identity to the amino acid sequence as set forth in SEQ ID NO: 4 and a pharmaceutically acceptable carrier or excipient.