mhurhangee/ep-ind-claims huggingface dataset:
A method of generating routing information in the form of metrics of links for anticipating, in a meshed network comprising a plurality of mobile nodes (A, B, C, S, D) each implementing a routing device, the departure from the network of at least one of said nodes bringing about the deactivation of the communication links (A-S, A-B, A-D) which link it directly to its neighbouring nodes (S, B, D), the method being characterised in that it comprises at least the following successive steps, executed by the routing device of said node leaving the network: - evaluating the routing information values associated with the group of links (A-S, A-B, A-D) linking said node to its neighbouring nodes (S, B, D), - when the routing information values associated with the links of said group of links are not all equal, successively replacing the lowest routing information value or values from among those associated with the links of said group (A-S, A-B, A-D) with the immediately higher routing information value among those associated with the links of said group (A-S, A-B, A-D) and until the routing information values associated with the links of said group (A-S, A-B, A-D) are all equal, - then incrementing simultaneously the set of routing information values associated with the links of said group (A-S, A-B, A-D) by a predetermined increment Δm and repeating this operation until said values reach a given maximum, the increment Δm being determined such as to limit the appearance of routing loops in the network to below a given number and to limit the convergence time that passes between the initiation of the method and its conclusion, - wherein after each modification of the routing information value, said node leaving the network transmits this modification to its neighbouring nodes. - evaluating the routing information values associated with the group of links (A-S, A-B, A-D) linking said node to its neighbouring nodes (S, B, D), - when the routing information values associated with the links of said group of links are not all equal, successively replacing the lowest routing information value or values from among those associated with the links of said group (A-S, A-B, A-D) with the immediately higher routing information value among those associated with the links of said group (A-S, A-B, A-D) and until the routing information values associated with the links of said group (A-S, A-B, A-D) are all equal, - then incrementing simultaneously the set of routing information values associated with the links of said group (A-S, A-B, A-D) by a predetermined increment Δm and repeating this operation until said values reach a given maximum, the increment Δm being determined such as to limit the appearance of routing loops in the network to below a given number and to limit the convergence time that passes between the initiation of the method and its conclusion, - wherein after each modification of the routing information value, said node leaving the network transmits this modification to its neighbouring nodes.
Mixed oxide of sodium and transition metals having the formula: Na x [Mn a Ni b Co c]O 2+y wherein: 0.5 ≤ x ≤ 0.9 -0.1 ≤ y ≤ 0.1 a + b + c = 1 0 < c ≤ 0.5, characterized in that: 4a + 2b + 3c = 4 - x + 2y, the mixed oxide has the P2 type structure, 0.35 ≤ a ≤ 0.55, and 0.05 ≤ b ≤ 0.25. 0.5 ≤ x ≤ 0.9 -0.1 ≤ y ≤ 0.1 a + b + c = 1 0 < c ≤ 0.5,
Roller shutter box which is attached to a frame, namely a window frame or door frame, in a building and comprises a room side and an outer side, the roller shutter box having a top box wall and being associated with a building ceiling on the room side thereof, preferably on the top face thereof, and the frame being connected to the building ceiling by means of a metal structural part which passes through the roller shutter box, the structural part having a fastening flange which extends beyond the top box wall in the installed state and consisting of an upper part and a lower part, the roller shutter box also being connected to the building ceiling by means of fastening means which pass through the fastening flange of the structural part, and the fastening means extending outside the roller shutter box, characterised in that the fastening flange is releasably connected to the lower part of the structural part, the connection between the lower part and the upper part being telescopic in the vertical direction with respect to the installed state.
A method for decoding a control information conveyed via a control channel comprising: determining a total number of control channel allocation blocks providing allocation information for multiple terminals, each allocation block including allocation information for one or more terminals; selecting one format of available formats, each available format determining a resource allocation within allocation blocks; decoding said allocation blocks using said selected format; performing error checking for said decoded allocation blocks, wherein the error checking pattern is merged with a terminal identification to achieve a terminal specific masking of at least part of the error checking pattern; and in the event of erroneous decoding, repeating said selecting, decoding and error checking for a different format of said available formats. determining a total number of control channel allocation blocks providing allocation information for multiple terminals, each allocation block including allocation information for one or more terminals; selecting one format of available formats, each available format determining a resource allocation within allocation blocks; decoding said allocation blocks using said selected format; performing error checking for said decoded allocation blocks, wherein the error checking pattern is merged with a terminal identification to achieve a terminal specific masking of at least part of the error checking pattern; and in the event of erroneous decoding, repeating said selecting, decoding and error checking for a different format of said available formats.
A compound having general formula: [wherein R 1 represents a C 6 -C 10 aryl group which may be substituted with 1 to 5 group(s) independently selected from Substituent Group a, or a heterocyclic group which may be substituted with 1 to 3 group(s) independently selected from Substituent Group a, R 2 represents a C 1 -C 6 alkyl group, R 3 represents a C 6 -C 10 aryl group which may be substituted with 1 to 5 group(s) independently selected from Substituent Group a, Q represents a group represented by the formula =CH-or a nitrogen atom, and Substituent Group a represents a group consisting of a halogen atom, a C 1 -C 6 alkyl group, a C 1 -C 6 hydroxyalkyl group, a C 1 -C 6 halogenated alkyl group, a carboxyl group, a carbamoyl group, a C 2 -C 7 alkylcarbonyl group, a C 2 -C 7 alkoxycarbonyl group, a hydroxy group, a C 1 -C 6 alkoxy group, a C 1 -C 6 halogenated alkoxy group, a C 2 -C 7 alkylcarbonyloxy group, a C 2 -C 7 alkoxycarbonyloxy group, an amino group, a C 2 -C 7 alkylcarbonylamino group, a C 2 -C 7 alkoxycarbonylamino group, a C 1 -C 6 alkylsulfonylamino group, a 4-morpholinyl group and a di-(C 1 -C 6 alkyl)amino group] or a pharmacologically acceptable salt thereof. R 1 represents a C 6 -C 10 aryl group which may be substituted with 1 to 5 group(s) independently selected from Substituent Group a, or a heterocyclic group which may be substituted with 1 to 3 group(s) independently selected from Substituent Group a, R 2 represents a C 1 -C 6 alkyl group, R 3 represents a C 6 -C 10 aryl group which may be substituted with 1 to 5 group(s) independently selected from Substituent Group a, Q represents a group represented by the formula =CH-or a nitrogen atom, and Substituent Group a represents a group consisting of a halogen atom, a C 1 -C 6 alkyl group, a C 1 -C 6 hydroxyalkyl group, a C 1 -C 6 halogenated alkyl group, a carboxyl group, a carbamoyl group, a C 2 -C 7 alkylcarbonyl group, a C 2 -C 7 alkoxycarbonyl group, a hydroxy group, a C 1 -C 6 alkoxy group, a C 1 -C 6 halogenated alkoxy group, a C 2 -C 7 alkylcarbonyloxy group, a C 2 -C 7 alkoxycarbonyloxy group, an amino group, a C 2 -C 7 alkylcarbonylamino group, a C 2 -C 7 alkoxycarbonylamino group, a C 1 -C 6 alkylsulfonylamino group, a 4-morpholinyl group and a di-(C 1 -C 6 alkyl)amino group]
A rectangular baler comprising a biomass feeder duct connected to a bale-forming chamber, a piston that is reciprocatable in the bale-forming chamber in order to compress biomass fed into the bale-forming chamber via the biomass feeder duct to form bales and a bale discharge, the dimensions of part of the interior of the bale-forming chamber being adjustable under the influence of at least one actuator the energization of which is controllable, and a controller for controlling the energization of the at least one actuator, the controller being adapted for generating a least a first control signal in accordance with a target pressure mode of the baler, a second control signal in accordance with a target force mode of the baler, and a third control signal in accordance with a target weight mode of the baler, the target pressure mode using a measured pressure value of a pressure sensor to generate the first control signal, the target force mode using a measured force value of a force sensor to generate the second control signal, the target weight mode using a measured weight value of a weight sensor to generate the third control signal, characterized in that the controller is adapted for determining a final control signal (PWMfinal) from at least the first control signal and a weight factor associated therewith, the second control signal and a weight factor associated therewith and the third control signal and a weight factor associated therewith, the final control signal (PWMfinal) being for use to control the energization of the at least one actuator of the rectangular baler.
An aircraft gas turbine engine aircraft gas turbine engine comprising: a main engine shaft (22, 23); a main engine shaft bearing arrangement (36, 49, 50) configured to rotatably support the main engine shaft (22, 23); and an electric machine comprising a rotor and a stator; wherein the rotor is mounted to the main engine shaft (22, 23) and is rotatably supported by a further electric machine bearing arrangement (70, 72) extending between the rotor and the stator, the stator is mounted to a static structure of the gas turbine engine by a mount member extending generally rearward or forward from the gas turbine engine static structure to the electric machine stator, and the stator is cantilevered from the static structure, wherein the main engine shaft comprises a radially inner portion joined to a radially outer portion separated by an annular space, and the electric machine rotor is mounted to the radially outer portion of the main engine shaft, the radially outer portion comprising a flexible bellows arrangement (182a-c) configured to permit movement between the radially inner and radially outer main engine shaft portions (142, 184) in use, the flexible bellows arrangement (182a-c) comprising a lower stiffness relative to the stator mount member. a main engine shaft (22, 23); a main engine shaft bearing arrangement (36, 49, 50) configured to rotatably support the main engine shaft (22, 23); and an electric machine comprising a rotor and a stator; wherein the rotor is mounted to the main engine shaft (22, 23) and is rotatably supported by a further electric machine bearing arrangement (70, 72) extending between the rotor and the stator, the stator is mounted to a static structure of the gas turbine engine by a mount member extending generally rearward or forward from the gas turbine engine static structure to the electric machine stator, and the stator is cantilevered from the static structure, wherein the main engine shaft comprises a radially inner portion joined to a radially outer portion separated by an annular space, and the electric machine rotor is mounted to the radially outer portion of the main engine shaft, the radially outer portion comprising a flexible bellows arrangement (182a-c) configured to permit movement between the radially inner and radially outer main engine shaft portions (142, 184) in use, the flexible bellows arrangement (182a-c) comprising a lower stiffness relative to the stator mount member.
Clamp-on ultrasonic flow sensor unit (10, 10') with a first and a second sensor arrangement (2, 2'; 3, 3'), of which either both are secured along a straight jacket section of a pipe through which a fluid under measurement flows, or wherein the first sensor arrangement is secured along a first straight jacket section of a pipe and the second sensor arrangement is secured along a second straight jacket section (11"), which is diametrically opposite to the first, by means of a first or a second securing tape (4, 4',; 5, 5'), respectively, which is wrapped around the pipe, in such a way that said arrangements are spaced at a distance from one another, and wherein both sensor arrangements are constructed in an identical manner, characterized in that the two sensor arrangements comprise, in each case, a flat bracket, which is close to the pipe, with a median longitudinal plane parallel to the straight jacket sections (11, 11', 11") and a tubular neck, which is formed thereupon in one piece in a manner perpendicular to the median longitudinal plane, a sensor insert guided in a longitudinal manner in the neck, said insert containing an ultrasonic transducer with a transducer element, a sensor cover, which is fitted over the neck and which is secured on the neck by means of a snap lock that can be released by turning the sensor cover, and a spring that presses the sensor insert against the pipe, and a clamping unit for the securing tape, said clamping unit having a plane, and being fixed in the bracket, approximately in the centre of the median longitudinal plane of the bracket.
A method comprising: receiving, at a wireless communication device on a downlink channel, acquisition indicator "AI" data, the AI data comprising an acquisition indicator AI, a corresponding AI signature, and a corresponding plurality of extended acquisition indicators "EAI"; determining, by the wireless communication device, whether a channel power corresponding to the received AI signature exceeds a first negative limit (-T2); characterized by the steps of: determining, by the wireless communication device, whether a reliability metric of the extended acquisition indicators exceeds a second limit; if the channel power does not exceed the first negative limit (-T2) and the reliability metric does not exceed the second limit, declaring, by the wireless communication device, the AI to have a state that is indeterminate, wherein the indeterminate AI state denotes neither acknowledgment nor denial of an access request associated with the received AI data. receiving, at a wireless communication device on a downlink channel, acquisition indicator "AI" data, the AI data comprising an acquisition indicator AI, a corresponding AI signature, and a corresponding plurality of extended acquisition indicators "EAI"; determining, by the wireless communication device, whether a channel power corresponding to the received AI signature exceeds a first negative limit (-T2); determining, by the wireless communication device, whether a reliability metric of the extended acquisition indicators exceeds a second limit; if the channel power does not exceed the first negative limit (-T2) and the reliability metric does not exceed the second limit, declaring, by the wireless communication device, the AI to have a state that is indeterminate, wherein the indeterminate AI state denotes neither acknowledgment nor denial of an access request associated with the received AI data.
A living body detection method, performed by an electronic device, the method comprising: determining a current image of a to-be-detected object in a video; detecting a plurality of key points on a biometric feature corresponding to the to-be-detected object in the current image; characterized by selecting, from the plurality of key points, a first key point corresponding to a left canthus of a left eye, a second key point corresponding to a right canthus of a right eye, and a third key point corresponding to a philtrum position of a mouth; constructing a constraint box in the current image (330, 803) according to the selected key points, wherein the constraint box is a triangular box; capturing a shape change of the triangular box constructed in the current image by: calculating a shape proportion value of the triangular box according to side lengths of the triangular box in the current image; comparing the shape proportion value with a dynamic change range; and capturing an abnormal deformation of the triangular box in the current image in response to the shape proportion value falling outside the dynamic change range; and determining the to-be-detected object as a prosthesis in response to capturing the abnormal deformation of the triangular box. determining a current image of a to-be-detected object in a video; detecting a plurality of key points on a biometric feature corresponding to the to-be-detected object in the current image; characterized by selecting, from the plurality of key points, a first key point corresponding to a left canthus of a left eye, a second key point corresponding to a right canthus of a right eye, and a third key point corresponding to a philtrum position of a mouth; constructing a constraint box in the current image (330, 803) according to the selected key points, wherein the constraint box is a triangular box; capturing a shape change of the triangular box constructed in the current image by: calculating a shape proportion value of the triangular box according to side lengths of the triangular box in the current image; comparing the shape proportion value with a dynamic change range; and capturing an abnormal deformation of the triangular box in the current image in response to the shape proportion value falling outside the dynamic change range; and determining the to-be-detected object as a prosthesis in response to capturing the abnormal deformation of the triangular box. calculating a shape proportion value of the triangular box according to side lengths of the triangular box in the current image; comparing the shape proportion value with a dynamic change range; and capturing an abnormal deformation of the triangular box in the current image in response to the shape proportion value falling outside the dynamic change range; and determining the to-be-detected object as a prosthesis in response to capturing the abnormal deformation of the triangular box.
An implantable heart help device for assisting the pump function of the heart by exerting an external force on the heart, wherein said implantable device comprises: • a first fixating member adapted to fixate said device to the sternum, • a second fixating member, • at least one connecting arm, and • at least one heart pump device, wherein said connecting arm is configured to be arranged in contact with said second fixating member and said heart pump device, and wherein said second fixating member is configured to be displaceable in relation to said first fixating member for changing the position of said heart pump device. • a first fixating member adapted to fixate said device to the sternum, • a second fixating member, • at least one connecting arm, and • at least one heart pump device,
An aircraft, comprising: a nacelle configured as a housing for an engine and disposed at a fixed location relative a wing member, the nacelle including a forward portion and an aft portion; a proprotor housing coupled to the nacelle, the proprotor housing configured to selectively rotate between a horizontal orientation and a non-horizontal orientation; a door pivotably coupled to the proprotor housing; and a linkage to connect the door and the nacelle, characterised in that the linkage comprises a roller track fixedly mounted to the door and a roller mechanism fixedly mounted to the nacelle, wherein the roller mechanism comprises at least one roller rotatably connected to a shaft mounted on a base of the nacelle, wherein the at least one roller comprises a first pair of rollers (516a, 516b) configured to dampen vibrations from the door during operation of the aircraft, and wherein the roller track is configured to move with the door and ride on the roller mechanism from a closed position when the proprotor housing is in a horizontal orientation to an open position when the proprotor housing is in a non-horizontal orientation. a nacelle configured as a housing for an engine and disposed at a fixed location relative a wing member, the nacelle including a forward portion and an aft portion; a proprotor housing coupled to the nacelle, the proprotor housing configured to selectively rotate between a horizontal orientation and a non-horizontal orientation; a door pivotably coupled to the proprotor housing; and a linkage to connect the door and the nacelle, characterised in that the linkage comprises a roller track fixedly mounted to the door and a roller mechanism fixedly mounted to the nacelle, wherein the roller mechanism comprises at least one roller rotatably connected to a shaft mounted on a base of the nacelle, wherein the at least one roller comprises a first pair of rollers (516a, 516b) configured to dampen vibrations from the door during operation of the aircraft, and wherein the roller track is configured to move with the door and ride on the roller mechanism from a closed position when the proprotor housing is in a horizontal orientation to an open position when the proprotor housing is in a non-horizontal orientation.
Process for the preparation of baked food, comprising: a) preparing a solution that comprises pro-biotic material; b) drying and granulating said solution and converting it to granules; c) encapsulating said granules by a first starch layer for resisting stomach pH, wherein said first layer is a 5 microns starch layer; d) further encapsulating the encapsulated granules by a second layer for resisting baking heat for a predetermined baking temperature and baking time, after which said second layer is being cracked to allow the live pro-biotic material to be absorbed by the small intestine of a person eating said baked food, wherein said layer is sesame flour or high temperature proof-cellulose; e) adding the double encapsulated granules to the dough before baking; and f) baking said dough in said predetermined baking temperature for said baking time. a) preparing a solution that comprises pro-biotic material; b) drying and granulating said solution and converting it to granules; c) encapsulating said granules by a first starch layer for resisting stomach pH, wherein said first layer is a 5 microns starch layer; d) further encapsulating the encapsulated granules by a second layer for resisting baking heat for a predetermined baking temperature and baking time, after which said second layer is being cracked to allow the live pro-biotic material to be absorbed by the small intestine of a person eating said baked food, wherein said layer is sesame flour or high temperature proof-cellulose; e) adding the double encapsulated granules to the dough before baking; and f) baking said dough in said predetermined baking temperature for said baking time.