mhurhangee/patent-ind-claim-en huggingface dataset:
Method for transmitting data implemented by a first electronic device, called a transmitter, to a second electronic device called a receiver, method comprising the transmission of a message subdivided into blocks of data (A 1 ,...,A n ), the method being characterized in that it comprises at least one iteration of a processing step comprising: - the obtaining (20-1) of a block of current data A i ; - the encryption (20-2) of said block of current data A i , by means of an encryption key k, delivering a block of encrypted data C i ; - the determining (20-4) of a tag b i whose length is determined randomly or pseudo-randomly as a function of said block of encrypted data C i , the length of the tag b i being determined by implementing a secret function based on the encryption key k ; - the transmission (20-4) of said block of encrypted data C i ; and in that it comprises at least one step of transmitting at least one tag b i according to a predetermined transmission scheme. - the obtaining (20-1) of a block of current data A i ; - the encryption (20-2) of said block of current data A i , by means of an encryption key k, delivering a block of encrypted data C i ; - the determining (20-4) of a tag b i whose length is determined randomly or pseudo-randomly as a function of said block of encrypted data C i , the length of the tag b i being determined by implementing a secret function based on the encryption key k ; - the transmission (20-4) of said block of encrypted data C i ;
Anti-rotation system (1; 1') comprising two fork-ends (230; 230') of a bicycle frame each provided with a respective slot , a hub-motor support shaft inserted inside said slots , and at least one anti-rotation washer (1; 1') for fixing said support shaft to one of said fork ends (230; 230'), said anti-rotation washer (1; 1') being pressed by means of a nut against a side surface of the fork-end (230; 230'), and comprising: a substantially flat washer body which has, formed therein, a shaped hole for engagement in a rotatably fixed manner onto said support shaft and which has two opposite sides, i.e. an outer side and an inner side , the former being pressed against by the locking nut and the latter abutting against a side surface of the fork-end (230; 230'), in a position mounted on the frame ; and a stop element integral with the washer body and designed so as to abut against a contact surface integral with the frame , preventing rotation of the anti-rotation washer (1; 1') when in a position mounted on the frame ; wherein said anti-rotation washer is configured such that said contact surface is external with respect to the slot of the fork-end (230; 230') that receives the support shaft , said stop element extending protruding beyond the plane defined by the inner side of the washer body ; characterized in that said stop element is defined by an end of a peripheral lip , wherein said peripheral lip fits, when the anti-rotation washer (1; 1') is in the mounted position, around an outer profile of the respective fork-end (230; 230'). a substantially flat washer body which has, formed therein, a shaped hole for engagement in a rotatably fixed manner onto said support shaft and which has two opposite sides, i.e. an outer side and an inner side , the former being pressed against by the locking nut and the latter abutting against a side surface of the fork-end (230; 230'), in a position mounted on the frame ; and a stop element integral with the washer body and designed so as to abut against a contact surface integral with the frame , preventing rotation of the anti-rotation washer (1; 1') when in a position mounted on the frame ; wherein said anti-rotation washer is configured such that said contact surface is external with respect to the slot of the fork-end (230; 230') that receives the support shaft , said stop element extending protruding beyond the plane defined by the inner side of the washer body ; characterized in that said stop element is defined by an end of a peripheral lip , wherein said peripheral lip fits, when the anti-rotation washer (1; 1') is in the mounted position, around an outer profile of the respective fork-end (230; 230').
An article having uniform grain size, produced by a process (S100) consisting essentially of, in sequence: heating a casting to a first temperature of 732°C (1350°F) for a first time period of approximately 12 hours (S104), the casting being made from a spinodal alloy, wherein the as-cast spinodal alloy is a copper-nickel-tin alloy comprising from 8 to 20 wt% nickel and from 5 to 11 wt% tin, with the balance being copper; performing a first hot work reduction of the casting (S104), wherein the first hot work reduction (S104) reduces the area of the casting by at least 30%; air cooling the casting to a first ambient temperature (S106); heating the casting to a second temperature of 927°C (1700°F) for a second time period of from 16 hours to 48 hours (S108); heating the casting to a third temperature of 954°C (1750°F) for a third time period of 4 hours (S110); performing a second hot work reduction of the casting (S112), wherein the second hot work reduction (S112) reduces the area of the casting by at least 30%; and air cooling the casting to a final ambient temperature to produce the article with uniform grain size (S114); wherein the process does not include a homogenization step; and wherein the grain size is from 40 μm to 60 μm. heating a casting to a first temperature of 732°C (1350°F) for a first time period of approximately 12 hours (S104), the casting being made from a spinodal alloy, wherein the as-cast spinodal alloy is a copper-nickel-tin alloy comprising from 8 to 20 wt% nickel and from 5 to 11 wt% tin, with the balance being copper; performing a first hot work reduction of the casting (S104), wherein the first hot work reduction (S104) reduces the area of the casting by at least 30%; air cooling the casting to a first ambient temperature (S106); heating the casting to a second temperature of 927°C (1700°F) for a second time period of from 16 hours to 48 hours (S108); heating the casting to a third temperature of 954°C (1750°F) for a third time period of 4 hours (S110); performing a second hot work reduction of the casting (S112), wherein the second hot work reduction (S112) reduces the area of the casting by at least 30%; and air cooling the casting to a final ambient temperature to produce the article with uniform grain size (S114); wherein the process does not include a homogenization step; and wherein the grain size is from 40 μm to 60 μm.
A method performed by a mobile radio network for providing information to a mobile device operated in the mobile radio network forming a service area having a cellular network structure composed of radio cells, whereby an information item to be provided to the mobile device for reproduction and/or usage by the mobile device for a further service and/or an application operated on side of the mobile device is encoded with a key on side of the mobile radio network, the encoded information item is transmitted from the mobile radio network to the mobile device via a broadcast channel used within at least one radio cell of the mobile radio network, the information item received by the mobile device from the radio cell of the mobile radio network via the broadcast channel is decoded on side of the mobile device by using the key, characterized in that the key is provided to the mobile device from the mobile radio network when the mobile device connects a radio cell of the mobile radio network for the first time, wherein the information item is or comprises positioning technology assistance information, and wherein the mobile radio network is a mobile radio network according to 4G standard respectively LTE standard and the information item is broadcasted to the mobile device via a SIB Message.
A brake control system, comprising: an inertial sensor coupled to an aircraft configured to measure a yaw rate of the aircraft; a brake control unit (BCU) , wherein the BCU receives the yaw rate from the inertial sensor, and wherein the BCU is configured to control a brake control device based on the yaw rate; characterised in that the BCU is configured to calculate a pressure correction using the yaw rate and equation Δ ⁢ P _ j = ± Δ F d _ x ∗ R rolling x − I wh _ x ∗ ω ̇ max / min A ⋅ k ⋅ n ⋅ R b ⋅ μ cc , wherein Δ P_j is a brake pressure correction, Δ F d_x is a brake force correction, R rolling x is a rolling radius of a wheel, I wh_x is a rotational moment of inertia of the wheel, ω̇ max / min is one of the maximum allowable deceleration of the wheel and a minimum allowable deceleration of the wheel, A is a piston area, k is a number of friction disks, n is a number of brake stacks, R b is a brake force torque arm, and μ cc is a friction coefficient of the friction disks. an inertial sensor coupled to an aircraft configured to measure a yaw rate of the aircraft; a brake control unit (BCU) , wherein the BCU receives the yaw rate from the inertial sensor, and wherein the BCU is configured to control a brake control device based on the yaw rate; characterised in that the BCU is configured to calculate a pressure correction using the yaw rate and equation Δ ⁢ P _ j = ± Δ F d _ x ∗ R rolling x − I wh _ x ∗ ω ̇ max / min A ⋅ k ⋅ n ⋅ R b ⋅ μ cc , wherein Δ P_j is a brake pressure correction, Δ F d_x is a brake force correction, R rolling x is a rolling radius of a wheel, I wh_x is a rotational moment of inertia of the wheel, ω̇ max / min is one of the maximum allowable deceleration of the wheel and a minimum allowable deceleration of the wheel, A is a piston area, k is a number of friction disks, n is a number of brake stacks, R b is a brake force torque arm, and μ cc is a friction coefficient of the friction disks.
A compound having the following structure: wherein: Ar is aryl, optionally substituted with one, two, three, four or five substituents chosen from halo, hydroxy, cyano, nitro, alkyl, alkoxy, benzyloxy, carboxy and aryl; R 1 is a straight-chain or branched C 1-6 alkyl group; the dotted line ("---") represents a covalent bond; X 1 is-O-C(O)-NH-; and POLY 1 is a poly(alkylene oxide), and pharmaceutically acceptable salts thereof. Ar is aryl, optionally substituted with one, two, three, four or five substituents chosen from halo, hydroxy, cyano, nitro, alkyl, alkoxy, benzyloxy, carboxy and aryl; R 1 is a straight-chain or branched C 1-6 alkyl group; the dotted line ("---") represents a covalent bond; X 1 is-O-C(O)-NH-; and POLY 1 is a poly(alkylene oxide),
A pharmaceutical composition for use in a method of treatment or prevention of diabetes mellitus by reducing blood glucose levels and reducing body weight, the composition comprising a long-acting insulin conjugate and a long-acting GLP-1/glucagon dual agonist conjugate, wherein the long-acting insulin conjugate is a conjugate in which insulin is linked to an immunoglobulin Fc region via a non-peptidyl polymer; wherein the long-acting GLP-1/glucagon dual agonist conjugate is a conjugate in which GLP-1/glucagon dual agonist is linked to an immunoglobulin Fc region via a non-peptidyl polymer, wherein the insulin is the insulin analog according to SEQ ID NO. 34; and wherein the GLP-1/glucagon dual agonist comprises an amino acid sequence selected from the group consisting of amino acid sequences represented by SEQ ID NOs: 40, 63, and 64, and simultaneously activates GLP-1 receptor and glucagon receptors.
A fan blade platform assembly (82; 182; 282) for a gas turbine engine , comprising: a pressure side platform half (84; 184; 284) including a first attachment wall (84-2; 184-2), a first gas path wall (84-1; 184-1), and a first connecting wall (84-3; 184-3) attached to both the first attachment wall and the first gas path wall; a suction side platform half (86; 186; 286) including a second attachment wall (86-2; 186-2), a second gas path wall (86-1; 186-1), and a second connecting wall (86-3; 186-3) attached to both the second attachment wall and the second gas path wall; and a seal (88; 188; 288) engaging the pressure side platform half (84; 184; 284) and the suction side platform half (86; 186; 286), characterised in that the seal (88; 188; 288) is fixed relative to one of the first connecting wall and the second connecting wall and is in moveable engagement with to the other of the first connecting wall and the second connecting wall and the seal is V-shaped and follows a curvilinear path in an axial direction. a pressure side platform half (84; 184; 284) including a first attachment wall (84-2; 184-2), a first gas path wall (84-1; 184-1), and a first connecting wall (84-3; 184-3) attached to both the first attachment wall and the first gas path wall; a suction side platform half (86; 186; 286) including a second attachment wall (86-2; 186-2), a second gas path wall (86-1; 186-1), and a second connecting wall (86-3; 186-3) attached to both the second attachment wall and the second gas path wall; and a seal (88; 188; 288) engaging the pressure side platform half (84; 184; 284) and the suction side platform half (86; 186; 286), characterised in that the seal (88; 188; 288) is fixed relative to one of the first connecting wall and the second connecting wall and is in moveable engagement with to the other of the first connecting wall and the second connecting wall and the seal is V-shaped and follows a curvilinear path in an axial direction.
An adapter for a gas turbine engine comprising: a first portion ; a second portion with a sensor mount interface configured to be attached to a sensor , the second portion defining a sensor mount position relative to the control module ; and a connecting body that connects the first and second portions such that the second portion provides a re-orientated sensor mount position relative to the control module , characterized in that the first portion comprises a control module mount interface configured to be attached to a control module . a first portion ; a second portion with a sensor mount interface configured to be attached to a sensor , the second portion defining a sensor mount position relative to the control module ; and a connecting body that connects the first and second portions such that the second portion provides a re-orientated sensor mount position relative to the control module , characterized in that the first portion comprises a control module mount interface configured to be attached to a control module .
A sensor wire system comprising a sensor wire , the sensor wire comprising: a sensor wire body having a distal end for insertion into a blood vessel of a patient ; a sensor mounted at the distal end of the sensor wire body; an electronics unit of the sensor wire body to wirelessly transmit information generated by the sensor to a receiver unit outside of the patient; and a power source to supply power to the electronics unit, the power source including an anode and a cathode, wherein the power source is in the distal end of the sensor wire body; characterized in that the sensor wire system further comprises: a protective sheath which isolates the sensor, the electronic unit, the power source and the sensor wire body from the patient's body, wherein the power source being activated by injecting an electrolyte into the sensor wire or between the sensor wire and the surrounding protective sheath and the electrolyte reacting with the anode and cathode to create a battery in operation. a sensor wire body having a distal end for insertion into a blood vessel of a patient ; a sensor mounted at the distal end of the sensor wire body; an electronics unit of the sensor wire body to wirelessly transmit information generated by the sensor to a receiver unit outside of the patient; and a power source to supply power to the electronics unit, the power source including an anode and a cathode, wherein the power source is in the distal end of the sensor wire body; characterized in that the sensor wire system further comprises: a protective sheath which isolates the sensor, the electronic unit, the power source and the sensor wire body from the patient's body, wherein the power source being activated by injecting an electrolyte into the sensor wire or between the sensor wire and the surrounding protective sheath and the electrolyte reacting with the anode and cathode to create a battery in operation.
A container for receiving radioactive wastes and for receiving spent fuel elements - with a container outer wall , a container bottom connected to the container outer wall and with at least one container lid -, wherein the container outer wall comprises form-fit elements on the inner side of the container in its upper lid-side edge region distributed over the inner circumference of the container outer wall , wherein the container lid is provided at its outer edge with complementary form-fit elements distributed over its outer circumference and wherein the container lid is or can be connected in a form-fit manner to the container outer wall by means of the form-fit interaction of its complementary form-fit elements with the form-fit elements of the container outer wall and wherein the container lid is or can be connected to the container outer wall free from weld joints, characterised in that the form-fit elements and/or the complementary form-fit elements are constituted in the form of grooves , and more precisely are constituted as grooves with at least two groove sections arranged perpendicular or essentially perpendicular to one another.
A method of producing a biosynthetic bacterial cellulose membrane comprising: (a) producing a cellulose pellicle by culturing cellulose-producing bacteria in a culture media under aerobic conditions supporting microbial biocellulose production; (b) performing a series of dehydration-rehydration steps on the cellulose pellicle, followed by a final dehydration step, to effect compaction of said cellulose pellicle; and (c) following step (b), treating the cellulose pellicle with a cellulose-dissolving solution, followed by treatment with acid. (a) producing a cellulose pellicle by culturing cellulose-producing bacteria in a culture media under aerobic conditions supporting microbial biocellulose production; (b) performing a series of dehydration-rehydration steps on the cellulose pellicle, followed by a final dehydration step, to effect compaction of said cellulose pellicle; and (c) following step (b), treating the cellulose pellicle with a cellulose-dissolving solution, followed by treatment with acid.
An autonomous travel working machine capable of traveling to a charging station by autonomous travel, the autonomous travel working machine comprising: a vehicle body having a traveling function, and a pair of power receiving terminals to be electrically connected to the charging station , wherein one of the pair of power receiving terminals is provided on a surface of the autonomous travel working machine, and the other is provided in a position where the other sandwiches at least a part of the vehicle body with the one power receiving terminal, characterized in that the autonomous travel working machine comprises a recessed portion that a part of the charging station can enter, wherein the pair of power receiving terminals are separately disposed out of the recessed portion and in the recessed portion . a vehicle body having a traveling function, and a pair of power receiving terminals to be electrically connected to the charging station , wherein one of the pair of power receiving terminals is provided on a surface of the autonomous travel working machine, and the other is provided in a position where the other sandwiches at least a part of the vehicle body with the one power receiving terminal, characterized in that the autonomous travel working machine comprises a recessed portion that a part of the charging station can enter, wherein the pair of power receiving terminals are separately disposed out of the recessed portion and in the recessed portion .
Reel-up for reeling of a fiber web (W) around a reel spool to form a parent roll (20B; 20A) by means of a reeling nip (N) between a reeling cylinder of the reel-up and the parent roll under reeling, which reel-up has a primary reeling position and a secondary reeling position, which reel-up comprises the reeling cylinder , substantially horizontal guides and for each end of the reel spool (15A; 15B) loading arms (12,13; 16,17) and carriages , characterized in that the primary reeling position is fixed in machine direction, that in the primary reeling position the reel spool and the parent roll under reeling is supported by the loading arms of the primary reeling position and that the primary reeling position comprises a center drive or a starter drive for rotating the reel spool and the parent roll under reeling to the reeling speed.
A crossover joint for connecting a first wellbore tool to a second wellbore tool, the first wellbore tool having a primary flow path and at least one secondary flow path, and the second wellbore tool having a primary flow path and at least one secondary flow path, the crossover joint comprising: a primary flow path configured to fluidly connect the primary flow path of the first wellbore tool to the primary flow path of the second wellbore tool; and at least one secondary flow path configured to fluidly connect the at least one secondary flow path of the first wellbore tool to the at least one secondary flow path of the second wellbore tool, characterized in that , a radial center of the primary flow path in the first wellbore tool is offset from a radial center of the primary flow path in the second wellbore tool, and in that : the primary flow path in the crossover joint is eccentric to the crossover joint at a first end ; and the primary flow path in the crossover joint is concentric to the crossover joint at a second end . a primary flow path configured to fluidly connect the primary flow path of the first wellbore tool to the primary flow path of the second wellbore tool; and at least one secondary flow path configured to fluidly connect the at least one secondary flow path of the first wellbore tool to the at least one secondary flow path of the second wellbore tool, characterized in that , a radial center of the primary flow path in the first wellbore tool is offset from a radial center of the primary flow path in the second wellbore tool, and in that : the primary flow path in the crossover joint is eccentric to the crossover joint at a first end ; and the primary flow path in the crossover joint is concentric to the crossover joint at a second end . the primary flow path in the crossover joint is eccentric to the crossover joint at a first end ; and the primary flow path in the crossover joint is concentric to the crossover joint at a second end .