mhurhangee/ep-ind-claims huggingface dataset:
Rotor intended to participate at least partially in the lift and/or propulsion of an aircraft, said rotor comprising a hub and at least three lift assemblies which are jointly mobile in rotation about an axis of rotation (AXROT) of the rotor, each lift assembly comprising a base and a lift member which extends spanwise from said base to an end, the base being attached to the hub by a mobility and retention member and being secured to the lift member, each mobility and retention member providing a degree of freedom with respect to the hub to the associated lift assembly about at least one drag axis (AXTRA) and one pitch axis (AXPAS), each lift assembly being circumferentially positioned between two adjacent lift assemblies, each lift assembly being linked to said two adjacent lift assemblies respectively by a first shock absorber and a second shock absorber, and for each lift assembly: - a first plane contains said drag axis (AXTRA) and is orthogonal to said pitch axis (AXPAS) of the lift assembly, - said first shock absorber is hinged to said lift assembly at least about a first axis parallel to the drag axis (AXTRA) of the lift assembly, - said second shock absorber is hinged to said lift assembly at least about a second axis parallel to the drag axis (AXTRA) of the lift assembly, characterised in that for each lift assembly, the first axis is located in a volume between said first plane of this lift assembly and said axis of rotation (AXROT), the second axis being positioned outside said volume. - a first plane contains said drag axis (AXTRA) and is orthogonal to said pitch axis (AXPAS) of the lift assembly, - said first shock absorber is hinged to said lift assembly at least about a first axis parallel to the drag axis (AXTRA) of the lift assembly, - said second shock absorber is hinged to said lift assembly at least about a second axis parallel to the drag axis (AXTRA) of the lift assembly,
A process for separating furfural from a liquid aqueous phase comprising furfural and one or more organic acids chosen from the group of levulinic acid, acetic acid, formic acid and mixtures thereof, which process comprises a step a) extracting furfural from the liquid aqueous phase into a liquid aromatic phase to obtain a liquid organic phase comprising furfural, characterized in that the liquid aromatic phase comprises aromatic hydrocarbon compounds including a mixture of a C 1-6 alkyl substituted naphthalene with a C 1-6 alkyl substituted benzene or comprising a mixture of naphthalene and 1-methylnaphthalene. a) extracting furfural from the liquid aqueous phase into a liquid aromatic phase to obtain a liquid organic phase comprising furfural, characterized in that the liquid aromatic phase comprises aromatic hydrocarbon compounds including a mixture of a C 1-6 alkyl substituted naphthalene with a C 1-6 alkyl substituted benzene or comprising a mixture of naphthalene and 1-methylnaphthalene.
Composition consisting of (i) Bacterial Ghosts derived from E. coli Nissle 1917, (ii) optionally an active agent, wherein the active agent is a chemotherapeutic drug, selected from doxorubicin, oxaliplatin, resveratrol, epirubicin, idarubicin, mitoxantrone, cyclophosphamide, maphosphamide, bortezomib or bleomycin, and (iii) a pharmaceutically acceptable carrier and/or excipient for use in the treatment or prevention of cancer. (i) Bacterial Ghosts derived from E. coli Nissle 1917, (ii) optionally an active agent, wherein the active agent is a chemotherapeutic drug, selected from doxorubicin, oxaliplatin, resveratrol, epirubicin, idarubicin, mitoxantrone, cyclophosphamide, maphosphamide, bortezomib or bleomycin, and (iii) a pharmaceutically acceptable carrier and/or excipient for use in the treatment or prevention of cancer.
A method for fabricating a thermally enhanced semiconductor package, said method comprising: providing a substrate; placing at least one transistor on the substrate between at least one inside pad and at least one outside pad of said substrate; coupling a conductive clip to a terminal on a top surface of said at least one transistor, and supporting said conductive clip by said at least one inside pad and said at least one outside pad; forming a mold compound over said transistor and said at least one inside pad and said at least one outside pad without covering a top surface of said conductive clip so as to form an exposed conductive clip; singulating said thermally enhanced semiconductor package by cutting at a point between said at least one transistor and said at least one outside pad. providing a substrate; placing at least one transistor on the substrate between at least one inside pad and at least one outside pad of said substrate; coupling a conductive clip to a terminal on a top surface of said at least one transistor, and supporting said conductive clip by said at least one inside pad and said at least one outside pad; forming a mold compound over said transistor and said at least one inside pad and said at least one outside pad without covering a top surface of said conductive clip so as to form an exposed conductive clip; singulating said thermally enhanced semiconductor package by cutting at a point between said at least one transistor and said at least one outside pad.
A system for tracking a moving anatomical object during a treatment sequence, the system comprising: (a) an imaging apparatus, operable in conjunction with a treatment apparatus, for (i) acquiring, prior to the treatment sequence, a series of reference images of an anatomical region comprising the object during motion thereof, each reference image corresponding to a different stage of the motion, and (ii) acquiring treatment images of the anatomical region during the treatment sequence; and characterised in: (b) a computation unit configured to (i) process the reference images of the anatomical region to determine, for each reference image of the anatomical region, coordinates of the object therein, (ii) store the coordinates of the object along with and in association with respective reference images, (iii) correlate at least some of the treatment images of the anatomical region to corresponding reference images of the anatomical region based on similarity therebetween, and (iv) for each of the correlated treatment images of the anatomical region, identify a best-matching reference image of the anatomical region and infer coordinates of the object in the correlated treatment images of the anatomical region from the stored coordinates of the object in the best-matching reference image of the anatomical region. (a) an imaging apparatus, operable in conjunction with a treatment apparatus, for (i) acquiring, prior to the treatment sequence, a series of reference images of an anatomical region comprising the object during motion thereof, each reference image corresponding to a different stage of the motion, and (ii) acquiring treatment images of the anatomical region during the treatment sequence; and characterised in: (b) a computation unit configured to (i) process the reference images of the anatomical region to determine, for each reference image of the anatomical region, coordinates of the object therein, (ii) store the coordinates of the object along with and in association with respective reference images, (iii) correlate at least some of the treatment images of the anatomical region to corresponding reference images of the anatomical region based on similarity therebetween, and (iv) for each of the correlated treatment images of the anatomical region, identify a best-matching reference image of the anatomical region and infer coordinates of the object in the correlated treatment images of the anatomical region from the stored coordinates of the object in the best-matching reference image of the anatomical region.
A safety needle device comprising: a housing having a proximal end and a distal end having an opening; a retractable sheath disposed and movable in the opening and surrounding a needle cannula having a distal end and a proximal end mounted to a needle hub at the proximal end of the housing, the retractable sheath having a radially enlarged proximal end and a ledge; a spring to bias the retractable sheath in a distal direction to cover the distal end of the needle cannula, the spring having a proximal end, a main body, and a distal end; and a radial protrusion extending inwardly from the housing to cause the spring to compress upon an application of force in the proximal direction to allow the spring to move from a proximal spring position when the spring is blocked under the ledge to a distal position when the spring has moved from past the ledge so that when the spring is extended, the distal end of the spring is secured to a catch at the distal end of the housing. a housing having a proximal end and a distal end having an opening; a retractable sheath disposed and movable in the opening and surrounding a needle cannula having a distal end and a proximal end mounted to a needle hub at the proximal end of the housing, the retractable sheath having a radially enlarged proximal end and a ledge; a spring to bias the retractable sheath in a distal direction to cover the distal end of the needle cannula, the spring having a proximal end, a main body, and a distal end; and a radial protrusion extending inwardly from the housing to cause the spring to compress upon an application of force in the proximal direction to allow the spring to move from a proximal spring position when the spring is blocked under the ledge to a distal position when the spring has moved from past the ledge so that when the spring is extended, the distal end of the spring is secured to a catch at the distal end of the housing.
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station, a primary synchronization signal, PSS, and a secondary synchronization signal, SSS, based on a first subcarrier spacing; receiving, from the base station, a master information block, MIB, based on the first subcarrier spacing, the MIB including information associated with a second subcarrier spacing for a physical downlink control channel, PDCCH; identifying, based on the information included in the MIB, the second subcarrier spacing for the PDCCH from one of a first subcarrier spacing set or a second subcarrier spacing set, wherein the first subcarrier spacing set corresponds to a lower frequency band and the second subcarrier spacing set corresponds to a higher frequency band; and receiving, from the base station, the PDCCH based on the second subcarrier spacing. receiving, from a base station, a primary synchronization signal, PSS, and a secondary synchronization signal, SSS, based on a first subcarrier spacing; receiving, from the base station, a master information block, MIB, based on the first subcarrier spacing, the MIB including information associated with a second subcarrier spacing for a physical downlink control channel, PDCCH; identifying, based on the information included in the MIB, the second subcarrier spacing for the PDCCH from one of a first subcarrier spacing set or a second subcarrier spacing set, wherein the first subcarrier spacing set corresponds to a lower frequency band and the second subcarrier spacing set corresponds to a higher frequency band; and receiving, from the base station, the PDCCH based on the second subcarrier spacing.
Compound of formula I: where R = -methyl or -ethyl, R 1 = -H, -methyl, ethyl, O-methyl or O-ethyl, X = -CH2- or -CH2-CH2-. where R = -methyl or -ethyl, R 1 = -H, -methyl, ethyl, O-methyl or O-ethyl, X = -CH2- or -CH2-CH2-.
A method for determining a drift in clock data that is provided by a clock of a seismic sensor, wherein the sensor is exposed to an ambient temperature that varies over time, the method comprising: obtaining temperature data from the seismic sensor exposed to the ambient environment, wherein the temperature data is associated with the ambient temperature as a function of time; obtaining the clock data; obtaining timestamp data provided by a global navigation satellite system; determining a temporal drift in the clock data based on a difference between the clock data and the timestamp data; characterized in that the method comprises: parametrizing drift data based on the temperature data obtained from the seismic sensor; and determining corrective data for correcting the clock data by minimizing a difference between the parametrized drift data and the temporal drift in the clock data. obtaining temperature data from the seismic sensor exposed to the ambient environment, wherein the temperature data is associated with the ambient temperature as a function of time; obtaining the clock data; obtaining timestamp data provided by a global navigation satellite system; determining a temporal drift in the clock data based on a difference between the clock data and the timestamp data; characterized in that the method comprises: parametrizing drift data based on the temperature data obtained from the seismic sensor; and determining corrective data for correcting the clock data by minimizing a difference between the parametrized drift data and the temporal drift in the clock data. parametrizing drift data based on the temperature data obtained from the seismic sensor; and determining corrective data for correcting the clock data by minimizing a difference between the parametrized drift data and the temporal drift in the clock data.
Roller shutter lintel assembly comprising, on the one hand, a tubular body having a quadrangular external cross-section, preferably rectangular or square, the majority of said tubular body being constituted by at least two profiles (2, 2') made of a thermally-insulating material, and one lower profile, transversally defining an inner side and an outer side of said tubular body, the outer surface, upper surface, inner surface and lower surface of the inner side of said tubular body being closed or formed by said profiles (2, 2') made of a thermally-insulating material, a removable inspection hatch concealing at least the lower surface of the inner side and, on the other hand, two side flanges mounted on the ends of said tubular body and supporting the ends of the winding shaft of the roller shutter apron, said roller shutter lintel assembly comprising an inertia reinforcement profile (6, 6') that is equipped with connection means for connecting to the reinforcement crosspiece of the upper sash of the window frame on which said roller shutter lintel assembly is intended to be secured, characterised in that said inertia reinforcement profile (6, 6') is removable or capable of retracting, can be accessed solely by removing the inspection hatch, and is placed on the inner side under one of the profiles made of a thermally-insulating material, which is also removable and which at least partially closes the lower surface of the inner side of said tubular body.
A powered surgical stapler comprising: a housing; an endoscopic portion extending distally from the housing and defining a first longitudinal axis; a drive motor disposed at least partially within a housing; a firing rod disposed in mechanical cooperation with the drive motor, the firing rod translated longitudinally by the motor and including a first indicator and second indicator disposed thereon; an end effector disposed adjacent a distal portion of the endoscopic portion, the end effector in mechanical cooperation with the firing rod so that the firing rod drives a surgical function of the end effector; a position calculator for determining the current linear position of the firing rod, the position calculator coupled to a linear displacement sensor disposed adjacent to the firing rod and configured to detect linear movement of the firing rod; and a speed calculator for determining at least one of a linear speed of the firing rod and rotational speed of the drive motor. a housing; an endoscopic portion extending distally from the housing and defining a first longitudinal axis; a drive motor disposed at least partially within a housing; a firing rod disposed in mechanical cooperation with the drive motor, the firing rod translated longitudinally by the motor and including a first indicator and second indicator disposed thereon; an end effector disposed adjacent a distal portion of the endoscopic portion, the end effector in mechanical cooperation with the firing rod so that the firing rod drives a surgical function of the end effector; a position calculator for determining the current linear position of the firing rod, the position calculator coupled to a linear displacement sensor disposed adjacent to the firing rod and configured to detect linear movement of the firing rod; and a speed calculator for determining at least one of a linear speed of the firing rod and rotational speed of the drive motor.
A device for treating regions of human or animal or plant surfaces using a cold atmospheric-pressure plasma by generating a dielectrically impeded surface discharge, comprising - at least one high-voltage cable, - at least one ground cable, - at least one plasma source, - at least one grounded electrode, and - at least one high-voltage electrode, characterized in that the high-voltage electrode consists of a flexible wire that is coated with a stretchable insulation layer, such that the high-voltage electrode consists of an insulated wire, wherein the insulation layer serves as a dielectric for the dielectrically impeded discharge to be generated, simultaneously adapts to the contours of the body areas or surfaces to be treated and has an electric strength of at least 2 kV, wherein the high-voltage electrode is arranged on an electrically conductive textile material that serves as the grounded electrode. - at least one high-voltage cable, - at least one ground cable, - at least one plasma source, - at least one grounded electrode, and - at least one high-voltage electrode,
A multi-link aggregation method, comprising: establishing (101; 201), by a first device, a transparent transmission channel with a second device, wherein the transparent transmission channel spans multiple links connected to the first device and the second device wherein the transparent transmission channel includes but is not limited to one or more of the following channels: VPN tunnel, a generic routing encapsulation tunnel, and point-to-point transmission channel; performing (102; 202), by the first device, network address translation on a received first target packet to obtain a second target packet; executing, by the first device, a link bonding policy, and selecting a target link from the links that are connected to the first device and the second device and spanned by the transparent transmission channel; characterized by encapsulating, by the first device, the second target packet with the target link to obtain a fourth target packet; and transmitting, by the first device, the second target packet to the second device through the transparent transmission channel, so that the second device performs network address translation on the second target packet to obtain a third target packet, and the second device sends the third target packet to a target device identified by destination address information of the first target packet, wherein the transmitting, by the first device, the second target packet to the second device through the transparent transmission channel, comprises: transmitting, by the first device, the fourth target packet to the second device through the target link. VPN tunnel, a generic routing encapsulation tunnel, and point-to-point transmission channel; performing (102; 202), by the first device, network address translation on a received first target packet to obtain a second target packet; executing, by the first device, a link bonding policy, and selecting a target link from the links that are connected to the first device and the second device and spanned by the transparent transmission channel; characterized by encapsulating, by the first device, the second target packet with the target link to obtain a fourth target packet; and transmitting, by the first device, the second target packet to the second device through the transparent transmission channel, so that the second device performs network address translation on the second target packet to obtain a third target packet, and the second device sends the third target packet to a target device identified by destination address information of the first target packet, wherein the transmitting, by the first device, the second target packet to the second device through the transparent transmission channel, comprises: transmitting, by the first device, the fourth target packet to the second device through the target link.
A method of generating a display object, the method comprising operating a first processor comprised within a first device, wherein the first device is a mobile device, to: execute an application; generate a display object associated with the application; transmit the display object to a second device for output by the second device; and receive user input to the application via the display object output on the second device, wherein the first processor is not operable to receive user input to the application via the display object on the first device; and wherein the method further comprises: causing a second processor comprised within the second device to: generate a second display object representative of data stored in a memory on the second device, or accessible to the second device; and output the second display object on the second device; wherein moving the second display object to an area of the second device on which the display object is output causes the first processor to supply the data represented by the second display object to the application. execute an application; generate a display object associated with the application; transmit the display object to a second device for output by the second device; and receive user input to the application via the display object output on the second device, wherein the first processor is not operable to receive user input to the application via the display object on the first device; and wherein the method further comprises: causing a second processor comprised within the second device to: generate a second display object representative of data stored in a memory on the second device, or accessible to the second device; and output the second display object on the second device; wherein moving the second display object to an area of the second device on which the display object is output causes the first processor to supply the data represented by the second display object to the application. causing a second processor comprised within the second device to: generate a second display object representative of data stored in a memory on the second device, or accessible to the second device; and output the second display object on the second device; generate a second display object representative of data stored in a memory on the second device, or accessible to the second device; and output the second display object on the second device; wherein moving the second display object to an area of the second device on which the display object is output causes the first processor to supply the data represented by the second display object to the application.