mhurhangee/ep-ind-claims huggingface dataset:
A functional group for a gymnastic machine, said gymnastic machine being provided with a frame supporting a load group usable for executing a gymnastic exercise using a first cable and comprising an actuating group provided with at least one user interface carried movable by said frame and with an actuating second cable mechanically connected with said load group by means of said first cable; said functional group comprising a modular transmission member adapted to be arranged between said user interface and said load group to exchange power between said first and second cables so as to facilitate packaging, assembling and disassembling said frame, said transmission member comprising a torsion shaft extending along a given direction and comprising a central portion axially delimited by two lateral portions, each of which supports a drum adapted to be coupled to said frame in a freely rotatable and axially fixed manner through a mechanical connecting device to wind said first/second cable; characterised in that each said lateral portion presents an end portion of given shape and each said connecting device comprising a removable head provided with a coupling member shaped in a conjugated manner with said end portion to shape-couple and allow the exchange of a torque through said central portion; and in that each coupling member comprises, and is crossed by, a cylindrical shank presenting an inner portion, suitable to engage a respective lateral portion (14, 15), and an outer portion provided with a seat for the respective drum (18, 19) and with a respective keying member.
A shrinking machine for textile items, comprising: - at least an elastically flexible and extensible conveyor belt for supporting and transporting a textile item, said conveyor belt being arranged in a closed loop around a plurality of rollers for its movement; - at least one stretching roller whose at least one section of the outer surface identifies, with a corresponding section of said conveyor belt, a stretching channel for the textile item having an inlet and an outlet; - at least one inlet roller arranged alongside said stretching roller to define said inlet of said stretching channel; - at least one tensioning roller operatively placed upstream of said inlet roller and rotating with a rotation speed of the surface lower than the rotation speed of the surface of said inlet roller so as to induce an elongation in said conveyor belt at least between said tensioning roller and said inlet roller, characterized in that: - said inlet roller comprises at least one annulus made of a compressible material; - said stretching roller being arranged, at least during operation, against said inlet roller, compressing at least partially said annulus made of a compressible material so as to deform at least an initial section of said stretching channel and move said inlet of said stretching channel operatively upstream of an axis connecting a first rotation centre of said inlet roller to a second rotation centre of said stretching roller. - at least an elastically flexible and extensible conveyor belt for supporting and transporting a textile item, said conveyor belt being arranged in a closed loop around a plurality of rollers for its movement; - at least one stretching roller whose at least one section of the outer surface identifies, with a corresponding section of said conveyor belt, a stretching channel for the textile item having an inlet and an outlet; - at least one inlet roller arranged alongside said stretching roller to define said inlet of said stretching channel; - at least one tensioning roller operatively placed upstream of said inlet roller and rotating with a rotation speed of the surface lower than the rotation speed of the surface of said inlet roller so as to induce an elongation in said conveyor belt at least between said tensioning roller and said inlet roller, - said inlet roller comprises at least one annulus made of a compressible material; - said stretching roller being arranged, at least during operation, against said inlet roller, compressing at least partially said annulus made of a compressible material so as to deform at least an initial section of said stretching channel and move said inlet of said stretching channel operatively upstream of an axis connecting a first rotation centre of said inlet roller to a second rotation centre of said stretching roller.
A mobile communication method for performing carrier aggregation by using a first base station and a second base station, comprising: a step A in which the first radio base station (MeNB) transmits, when a first bearer has been set between a mobile station and the first radio base station, to the mobile station an information element that instructs to add a second bearer between the second radio base station (SeNB) and to modify settings of the first bearer; and a step B in which the mobile station, according to the information element, modifies the settings of the first bearer and adds the second bearer to receive a downlink signal via the first bearer and the second bearer and transmit an uplink signal via either the first bearer or the second bearer, wherein the step B includes, upon receiving an existing information element "DRB-ToAddMod" as the information element and when "PDCP-config" has been set in the information element "DRB-ToAddMod", the mobile station modifying the settings of the first bearer and adding the second bearer to transmit the uplink signal via the second bearer. a step A in which the first radio base station (MeNB) transmits, when a first bearer has been set between a mobile station and the first radio base station, to the mobile station an information element that instructs to add a second bearer between the second radio base station (SeNB) and to modify settings of the first bearer; and a step B in which the mobile station, according to the information element, modifies the settings of the first bearer and adds the second bearer to receive a downlink signal via the first bearer and the second bearer and transmit an uplink signal via either the first bearer or the second bearer, wherein the step B includes, upon receiving an existing information element "DRB-ToAddMod" as the information element and when "PDCP-config" has been set in the information element "DRB-ToAddMod", the mobile station modifying the settings of the first bearer and adding the second bearer to transmit the uplink signal via the second bearer.
Method (METH) for assisting in determining a position of an identifier for accessing and starting a vehicle, in relation to said vehicle, comprising: - Transmission (Em_TS vp), from a first device from among the vehicle and the identifier, to a second device, separate from the first, from among the vehicle and the identifier, at a transmission time t 0, of an initial train (TS vp) of N sinusoidal signals, with identical amplitudes and with respective frequencies f p, p∈[1;N], - Reception (Rec_TS vp '), by the second device, of an image train (TS vp ') corresponding to the initial train (TS vp, TS ip) altered by the transmission (Em_TS vp) - Construction (Cons_Sp v) of a frequency spectrum (Sp v) of the image train (TS vp ') - An inverse Fourier transform (TFI_Sp v) of the spectrum (Sp v), making it possible to obtain a temporal signature (Sg v) - A first integration (Int1_Sg v) of the temporal signature (Sg v), between the transmission time to and a predetermined intermediate time tint, giving a first result - A second integration (Int2_Sg v) of the temporal signature (Sg v), between the intermediate time tint and a predetermined final time t f, giving a second result - Comparison (Comp_1/2) of a ratio of the first result to the second result with a threshold value, making it possible to determine whether the identifier is positioned inside the vehicle. - Transmission (Em_TS vp), from a first device from among the vehicle and the identifier, to a second device, separate from the first, from among the vehicle and the identifier, at a transmission time t 0, of an initial train (TS vp) of N sinusoidal signals, with identical amplitudes and with respective frequencies f p, p∈[1;N], - Reception (Rec_TS vp '), by the second device, of an image train (TS vp ') corresponding to the initial train (TS vp, TS ip) altered by the transmission (Em_TS vp) - Construction (Cons_Sp v) of a frequency spectrum (Sp v) of the image train (TS vp ') - An inverse Fourier transform (TFI_Sp v) of the spectrum (Sp v), making it possible to obtain a temporal signature (Sg v) - A first integration (Int1_Sg v) of the temporal signature (Sg v), between the transmission time to and a predetermined intermediate time tint, giving a first result - A second integration (Int2_Sg v) of the temporal signature (Sg v), between the intermediate time tint and a predetermined final time t f, giving a second result - Comparison (Comp_1/2) of a ratio of the first result to the second result with a threshold value, making it possible to determine whether the identifier is positioned inside the vehicle.
A method performed by a terminal in a wireless communication system, the method comprising: receiving, by a medium access control, MAC, layer from a radio link control, RLC, layer, an MAC service data unit, SDU including a RLC header, a packet data convergence protocol, PDCP, header and a PDCP payload; receiving, by the MAC layer from the RLC layer, an information on an expiry of a timer corresponding to the MAC SDU; in case that the MAC SDU is stored with an MAC subheader and the MAC SDU is considered expired based on the information, generating an MAC packet data unit, PDU, by discarding the MAC subheader and the PDCP payload part from the MAC SDU and updating the MAC subheader based on the PDCP header and the RLC header; and transmitting, by the MAC layer to a lower layer, the MAC PDU including the updated MAC subheader, the RLC header, and the PDCP header. receiving, by a medium access control, MAC, layer from a radio link control, RLC, layer, an MAC service data unit, SDU including a RLC header, a packet data convergence protocol, PDCP, header and a PDCP payload; receiving, by the MAC layer from the RLC layer, an information on an expiry of a timer corresponding to the MAC SDU; in case that the MAC SDU is stored with an MAC subheader and the MAC SDU is considered expired based on the information, generating an MAC packet data unit, PDU, by discarding the MAC subheader and the PDCP payload part from the MAC SDU and updating the MAC subheader based on the PDCP header and the RLC header; and transmitting, by the MAC layer to a lower layer, the MAC PDU including the updated MAC subheader, the RLC header, and the PDCP header.
A method for prediction GNSS satellite trajectory prediction data, said method comprising: obtaining at least one satellite navigation message for a satellite by means of a host device which is part of a mobile apparatus; determining a propagating condition of a satellite trajectory prediction model according to the obtained satellite navigation message, the propagating condition indicating at least one known satellite position; estimating values of parameters of the satellite trajectory prediction model by solving the parameters of the satellite trajectory prediction model using the said propagating condition; and propagating a set of satellite trajectory extension data for a propagating interval by using the estimated values of the parameters of the satellite trajectory prediction model by means of said host device, characterized in that the method is used in said mobile apparatus including at least a GNSS receiver, wherein the satellite trajectory prediction model is used by the mobile apparatus to propagate the set of satellite trajectory extension data, and the satellite trajectory prediction model comprises one of a compact force model and an adjusted orbit model. obtaining at least one satellite navigation message for a satellite by means of a host device which is part of a mobile apparatus; determining a propagating condition of a satellite trajectory prediction model according to the obtained satellite navigation message, the propagating condition indicating at least one known satellite position; estimating values of parameters of the satellite trajectory prediction model by solving the parameters of the satellite trajectory prediction model using the said propagating condition; and propagating a set of satellite trajectory extension data for a propagating interval by using the estimated values of the parameters of the satellite trajectory prediction model by means of said host device, characterized in that the method is used in said mobile apparatus including at least a GNSS receiver, wherein the satellite trajectory prediction model is used by the mobile apparatus to propagate the set of satellite trajectory extension data, and the satellite trajectory prediction model comprises one of a compact force model and an adjusted orbit model.
A method for desalinating sea water including a heating station, a container that may be filled with sea water, a condenser, and a collection container or a discharge pipe for a distillate, said components being realised in modular form as a combined transportable unit, - wherein a container is filled with sea water such that an evaporation space will remain at the upper end thereof, - wherein an air flow is heated at a heating station disposed upstream of the container and is pressed into the seawater-filled container using a blower or a pump, - wherein a vapour formed in the evaporation space of the container is led to a condenser, - wherein the condenser is fed with sea water or salt water via a suction pipe and the sucked-in seawater is passed through cooling coils of the condenser, discharged at the exit of the condenser, and fed to the container via a feed pipe, - wherein a distillate formed by condensation on the cooling coils of the condenser in the evaporation space of the container is collected and stored, - wherein sea water pre-heated by the condenser is fed to the container, - wherein the vapour that has been cooled by the condenser is fed to the heating station as a pre-heated air flow via an airflow channel, - wherein said air flow is heated in the heating station and is then blown into the container so as to flow through the sea water, and - wherein the heating station heats the air flow using regenerative energy or residual energy from a treatment process. - wherein a container is filled with sea water such that an evaporation space will remain at the upper end thereof, - wherein an air flow is heated at a heating station disposed upstream of the container and is pressed into the seawater-filled container using a blower or a pump, - wherein a vapour formed in the evaporation space of the container is led to a condenser, - wherein the condenser is fed with sea water or salt water via a suction pipe and the sucked-in seawater is passed through cooling coils of the condenser, discharged at the exit of the condenser, and fed to the container via a feed pipe, - wherein a distillate formed by condensation on the cooling coils of the condenser in the evaporation space of the container is collected and stored, - wherein sea water pre-heated by the condenser is fed to the container, - wherein the vapour that has been cooled by the condenser is fed to the heating station as a pre-heated air flow via an airflow channel, - wherein said air flow is heated in the heating station and is then blown into the container so as to flow through the sea water, and - wherein the heating station heats the air flow using regenerative energy or residual energy from a treatment process.
A method for acquiring a random number for a blockchain, applied by a blockchain node and comprising: in a process of executing a business transaction request, calling an oracle contract to generate a random number acquisition request; processing (S 120) the random number acquisition request through the oracle contract, and making at least two oracle nodes arranged outside the blockchain generate random factors based on private keys of the at least two oracle nodes; acquiring (S 130) the random factors fed back by the at least two oracle nodes through the oracle contract; verifying a signature of the random factor of each of the at least two oracle nodes using a public key of each of the at least two oracle nodes through the oracle contract, wherein the signature is obtained by signing a request parameter of the random number acquisition request and the random factor by each of the at least two oracle nodes using the private key, and the request parameter is a parameter capable of characterizing the random number acquisition request; aggregating (S 140) the random factors through the oracle contract to form an aggregation factor, and generating a random number according to the aggregation factor and an on-chain random algorithm; and feeding back (S 150) the random number to the business transaction request through the oracle contract. in a process of executing a business transaction request, calling an oracle contract to generate a random number acquisition request; processing (S 120) the random number acquisition request through the oracle contract, and making at least two oracle nodes arranged outside the blockchain generate random factors based on private keys of the at least two oracle nodes; acquiring (S 130) the random factors fed back by the at least two oracle nodes through the oracle contract; verifying a signature of the random factor of each of the at least two oracle nodes using a public key of each of the at least two oracle nodes through the oracle contract, wherein the signature is obtained by signing a request parameter of the random number acquisition request and the random factor by each of the at least two oracle nodes using the private key, and the request parameter is a parameter capable of characterizing the random number acquisition request; aggregating (S 140) the random factors through the oracle contract to form an aggregation factor, and generating a random number according to the aggregation factor and an on-chain random algorithm; and feeding back (S 150) the random number to the business transaction request through the oracle contract.
A working machine comprising: - a combustion engine (101, 201, 401), and - an electromechanical power transmission chain (102, 202, 402) between the combustion engine and one or more actuators (467, 409, 469) of the working machine, characterized in that the working machine further comprises: - an electrical connector system (103, 203, 403) for attaching at least one electrical cable mechanically to the working machine and for electrically connecting to an external electrical power network through the electrical cable, and - an electronic power converter (104, 204, 404) for transferring electrical energy from the electromechanical power transmission chain through the electrical cable to the external electrical power network and from the external electrical power network through the electrical cable to the electromechanical power transmission chain, wherein the electronic power converter is configured to enable the working machine to be: - energized by the external electrical power network when a capacity of the external electrical power network is sufficient and when it is more cost-effective to use the external electrical power network than to use the combustion engine, and - used as an auxiliary power plant for increasing a capacity of power supply needed by external devices connected to the external electrical power network. - a combustion engine (101, 201, 401), and - an electromechanical power transmission chain (102, 202, 402) between the combustion engine and one or more actuators (467, 409, 469) of the working machine, - an electrical connector system (103, 203, 403) for attaching at least one electrical cable mechanically to the working machine and for electrically connecting to an external electrical power network through the electrical cable, and - an electronic power converter (104, 204, 404) for transferring electrical energy from the electromechanical power transmission chain through the electrical cable to the external electrical power network and from the external electrical power network through the electrical cable to the electromechanical power transmission chain, - energized by the external electrical power network when a capacity of the external electrical power network is sufficient and when it is more cost-effective to use the external electrical power network than to use the combustion engine, and - used as an auxiliary power plant for increasing a capacity of power supply needed by external devices connected to the external electrical power network.
A sealed and thermally insulating tank for storing a fluid having a wall comprising, in a thickness direction from the exterior toward the interior of the tank, a supporting structure, a primary thermal insulation barrier and a primary sealing membrane which lies against the primary thermal insulation barrier and is intended to be in contact with the fluid stored in the tank; the primary thermal insulation barrier comprising a primary insulating panel including an external rigid plate and a polymer foam layer which is fixed on the external rigid plate and is disposed between the external rigid plate and the primary sealing membrane, the polymer foam layer having a recess (35, 36) which extends through the whole thickness of the polymer foam layer and which forms, at the external rigid plate, a bearing zone, the bearing zone of the external rigid plate collaborating with an anchoring device, the anchoring device bearing against the bearing zone of the external rigid plate in such a way as to hold it toward the supporting structure, the primary sealing membrane comprising a specific zone which is disposed plumb with the bearing zone and which comprises a portion projecting toward the interior of the tank; the primary thermal insulation barrier comprising a reinforcing insulating plug which is housed in the recess (35, 36) in such a way as to ensure continuity of thermal insulation of the primary thermal insulation barrier, the said tank being characterized in that said reinforcing insulating plug extends, in the thickness direction, from the bearing zone of the external rigid plate to the specific zone of the primary sealing membrane in such a way as to take up the compressive forces that might act on the specific zone of the primary sealing membrane; the reinforcing insulating plug comprising a polymer foam layer having a compressive yield strength equal to or greater than 80% of that of the polymer foam layer of the primary insulating panel.