mhurhangee/ep-ind-claims huggingface dataset:
Method for the isocyanate-free production of a synthetic material product I comprising a. Mixture of thermoplastic polyurethane and a nanoclay component, wherein the mixture occurs at a ratio of 70 to 99.99 wt% thermoplastic polyurethane to 0.01 to 30 wt% nanoclay, thereby producing intermediate product I, b. Mixture of 10-90 wt% intermediate product I obtained from a) with 8-30 wt% polyol component, and optionally additional TPU, thereby producing intermediate product II, c. Mixture of 50-70 wt% intermediate product II obtained from b) with 20-40 wt% polycarbonate and/or 6-18 wt% polycaprolactone component, thereby producing product I, whereby the mixture of components in one or more steps occurs in a segmented single, twin or multiple screw melt extruder at melting temperatures between 80 and 300 degrees C. a. Mixture of thermoplastic polyurethane and a nanoclay component, wherein the mixture occurs at a ratio of 70 to 99.99 wt% thermoplastic polyurethane to 0.01 to 30 wt% nanoclay, thereby producing intermediate product I, b. Mixture of 10-90 wt% intermediate product I obtained from a) with 8-30 wt% polyol component, and optionally additional TPU, thereby producing intermediate product II, c. Mixture of 50-70 wt% intermediate product II obtained from b) with 20-40 wt% polycarbonate and/or 6-18 wt% polycaprolactone component, thereby producing product I,
A honeymoon adhesive comprising a first part and a second part, wherein the honeymoon adhesive comprises at least three components selected from the group of a silylated functionalized polymer, a catalyst, and water, wherein the first part is provided for application to a first surface and contains a maximum of two of the afore mentioned components and the second part is provided for application to a second surface and contains at least the third component, with the proviso that neither of the first nor the second part contains all three components, wherein the first part contains the silylated functionalized polymer and the water with no catalyst being present and the second part contains the silylated functionalized polymer and the catalyst with no water being present, and wherein three components are provided in amounts effective to provide mutual interpenetration upon contact without physical mixing of the two parts at a rate that is faster than the rate of reaction between the two parts to achieve adhesion of first and second surface and wherein said amounts effective to provide mutual interpenetration upon contact include 0.01 - 5 parts by weight of the catalyst and 0.01 - 5 parts by weight of the water relative to 100 parts by weight of the silylated functionalized polymer.
A retrofocus lens system comprising, in order from an object side: a first lens group having negative refractive power; a second lens group having negative refractive power; and a third lens group having positive refractive power; characterised in that upon focusing from infinity to a close object, the first lens group, the second lens group, and the third lens group are moved to the object side such that a distance between the first lens group and the second lens group increases, and a distance between the second lens group and the third lens group decreases. a first lens group having negative refractive power; a second lens group having negative refractive power; and a third lens group having positive refractive power; characterised in that upon focusing from infinity to a close object, the first lens group, the second lens group, and the third lens group are moved to the object side such that a distance between the first lens group and the second lens group increases, and a distance between the second lens group and the third lens group decreases.
An application takeover method performed by a system comprising a takeover server, a first terminal and a second terminal, the method comprising: • sending, by the first terminal, an application takeover request to the second terminal; • receiving, by the first terminal, a takeover accept response from the second terminal; • after the reception of the takeover accept response by the first terminal, receiving, by the takeover server, an application takeover instruction sent by the first terminal, wherein the application takeover instruction comprises information about an application, stored on the first terminal, to be taken over, and an identifier of the second terminal, wherein the application takeover instruction is used to make the application of the first terminal be taken over by the second terminal, wherein the second terminal does not store the application; • establishing, by the takeover server, a takeover correspondence between the first terminal and the second terminal according to the application takeover instruction; • acquiring, by the takeover server, according to the information that is about the application, dynamic information of the application and operating information corresponding to the dynamic information; • sending, by the takeover server, based on the identifier of the second terminal the dynamic information of the application and the corresponding operating information to the second terminal. • sending, by the first terminal, an application takeover request to the second terminal; • receiving, by the first terminal, a takeover accept response from the second terminal; • after the reception of the takeover accept response by the first terminal, receiving, by the takeover server, an application takeover instruction sent by the first terminal, wherein the application takeover instruction comprises information about an application, stored on the first terminal, to be taken over, and an identifier of the second terminal, wherein the application takeover instruction is used to make the application of the first terminal be taken over by the second terminal, wherein the second terminal does not store the application; • establishing, by the takeover server, a takeover correspondence between the first terminal and the second terminal according to the application takeover instruction; • acquiring, by the takeover server, according to the information that is about the application, dynamic information of the application and operating information corresponding to the dynamic information; • sending, by the takeover server, based on the identifier of the second terminal the dynamic information of the application and the corresponding operating information to the second terminal.
A lining and rescue float which is installed in a vessel located in a body of water and which enables people to access the vessel from the body of water or from a second vessel and which comprises at least one inflatable body and fixing means for fixing said inflatable body to the vessel, where: - the inflatable body has a polygonal configuration with: - an upper side that extends in a horizontal direction from the vessel in which it is installed, constituting a horizontal surface for the passage of people between the vessels, - a rear side that remains in contact with the vessel and which is partially submerged in the body of water, - a front side destined for remaining in contact with the second vessel and which is partially submerged in the body of water, - a lower side that joins the rear side and the front side underneath, and - lateral sides, and is characterized in that the front side extends further towards the interior of the body of water than the rest of the inflatable body. - the inflatable body has a polygonal configuration with: - an upper side that extends in a horizontal direction from the vessel in which it is installed, constituting a horizontal surface for the passage of people between the vessels, - a rear side that remains in contact with the vessel and which is partially submerged in the body of water, - a front side destined for remaining in contact with the second vessel and which is partially submerged in the body of water, - a lower side that joins the rear side and the front side underneath, and - lateral sides,
A bioreactor for the generation of cellularized medical implants characterized in that it comprises an external watertight unicompartmented or multicompartmented chamber containing in its interior one or more matrices (3,4,5,6,7), these interior matrices (3,4,5,6,7) and the bioreactor's external chamber (1,2) being simultaneously manufactured through a process of rapid prototyping; wherein the external chamber (1,2) comprises a shape adapted to the implant shape to be cellularized (internal matrix), and in that it allows the implants to be removed from the interior of the bioreactor by cutting the external chamber (1,2) in locations comprising grooves right before implantation, enabling the sterility of the implant.
A gasket comprising a sealing layer and a support layer, the sealing layer being formed from a resilient material which comprises a chemically-exfoliated vermiculite component in a proportion of at least 25% w/w of the sealing layer, the said CEV component being at least partially derived from dry CEV, and a hydrolysis resistant polymer to improve the water resistance of said sealing layer wherein the proportion of the said polymer does not exceed 20% w/w of the sealing layer and wherein said chemically exfoliated vermiculite component includes sufficient dry CEV to provide a wet sealing layer dough with a reduced water content which is capable of being dried before substantial skinning has occurred.
Electric capacitor having at least one capacitor coil, a cylindrical housing that surrounds the capacitor coil, composed of metal, electric connectors, and connection lines that run in the housing interior and electrically connect the capacitor coil with the connectors, wherein at least one circumferential depression is formed in the mantle of the housing, which depression divides the housing into a first segment and a second segment and can be unfolded by means of excess pressure in the housing interior, wherein the first segment surrounds the capacitor coil and the second segment carries the connectors, wherein the first segment of the housing carries an electric insulation, particularly composed of plastic, and is surrounded by this insulation on the outside, wherein the electric insulation extends at most all the way to the depression, and wherein a covering composed of an electrically insulating material, particularly of plastic, is set onto the second segment of the housing, characterized in that at least one connection line has a planned breaking point, and that an edge region of the covering overlaps, at least in part, with the electric insulation carried by the first segment, in the direction of the longitudinal axis of the housing.
A composition comprising a peptide selected from: AAFY-Nle-PSQYA-Tic-dA (SEQ ID NO: 2), AG-dY-F-Nle-P-dS-Aad-FA-Tic-dA (SEQ ID NO: 3), dA-G-dY-F-Nle-P-dS-Q-fF-dA-Tic-dA (SEQ ID NO: 4), NorV-G-dY-F-Nle-P-dS-QF-dA-Tic-dA (SEQ ID NO: 5), AG-dY-F-Nle-P-dS-QFA-Tic-dS (SEQ ID NO: 6) and dA-G-dY-F-Nle-P-dS-QF-dA-Tic-dA (SEQ ID NO: 7), wherein Nle denotes norleucine, Tic denotes -1,2,3,4-tetrahydroisoquinoline-3-carboxylic acid, dA denotes D-alanine, dY denotes D-tyrosine, dS denotes D-serine, Aad denotes α-aminoadipic acid, fF denotes fluorinated phenylalanine and NorV denotes norvaline; and wherein palmitic acid-PEG8 is linked at the N-terminus of the peptide, wherein PEG8 denotes that the average number of ethylene glycol units is 8.
A method for portioning a sausage string generated by a filling machine into single sausage portions, having the following steps: - Transporting the sausage string in the direction of transport, - Portioning the filled sausage string by means of opposing portioning elements (3, 3') that engage in the sausage string, wherein - the movement of the portioning elements (3, 3') is controlled in each case along a freely adjustable track wherein the portioning elements (3, 3') pass at least through the following steps on their track: a) Constriction step, in which the portioning elements (3, 3') are moved toward one another from a starting point, b) Conveyance step, in which the portioning elements (3, 3') are each moved repectively in the direction of transport, c) Decoupling step, in which the portioning elements (3, 3') are each retracted from the sausage string, d) Return step, in which the portioning elements (3, 3') are returned to the starting point, wherein the length of the conveyance step can be adjusted, characterized in that, the track coordinates (X, Y) of the track as well as the speed of the respective portioning elements (3, 3') are adjusted at different track sections in relation to the following parameters: - length of the sausage portion and - caliber of the sausage portion and - type of sausage casing. - Transporting the sausage string in the direction of transport, - Portioning the filled sausage string by means of opposing portioning elements (3, 3') that engage in the sausage string, wherein - the movement of the portioning elements (3, 3') is controlled in each case along a freely adjustable track wherein a) Constriction step, in which the portioning elements (3, 3') are moved toward one another from a starting point, b) Conveyance step, in which the portioning elements (3, 3') are each moved repectively in the direction of transport, c) Decoupling step, in which the portioning elements (3, 3') are each retracted from the sausage string, d) Return step, in which the portioning elements (3, 3') are returned to the starting point, - length of the sausage portion and - caliber of the sausage portion and - type of sausage casing.
Method for securing the distribution of authentication keys used for symmetric data authenticated communication between at least a first and a second communication modules (14, 28A,..., 28N), the first communication module (28A,..., 28N) being comprised in trackside equipment associated to a train control system and the second communication module being onboard a railroad vehicle travelling on a track managed by said train control system, said train control system comprising a control center, located away from the railroad track, the method comprising a step of transmitting an authentication key to at least one communication module (14, 28A,..., 28N) among the first and second communication modules, the transmission being performed by a symmetric data encryption communication between a key server comprised in a key management module of said control center and said communication module (14, 28A,..., 28N), using a transportation key known by said communication module (14, 28A,..., 28N), the method further comprising a preliminary step of transmitting the transportation key to said communication module (14, 28A,..., 28N), the preliminary transmission being performed by an asymmetric data encryption communication between the key server and said communication module (14, 28A,..., 28N) using a public key generated by said communication module (14, 28A,..., 28N), the method being characterised in that the preliminary step of transmitting the transportation key comprises the following sub-steps: - receiving from said communication module (14, 28A,..., 28N), a certificate including a public key; - encrypting the transportation key into an encrypted message using said public key; - transmitting the encrypted message including the transportation key to said communication module (14, 28A,..., 28N), the encrypted message being decrypted by said communication module (14, 28A,..., 28N) using a session key derived from said public key. - receiving from said communication module (14, 28A,..., 28N), a certificate including a public key; - encrypting the transportation key into an encrypted message using said public key; - transmitting the encrypted message including the transportation key to said communication module (14, 28A,..., 28N), the encrypted message being decrypted by said communication module (14, 28A,..., 28N) using a session key derived from said public key.
A method of timeslot-wise detection of at least one radio signal in a cellular radio network, wherein a radio signal is received via at least one first radio antenna and at least one second radio antenna, wherein the radio signal received by the respective radio antennas (16, 20) is forwarded to at least one first radio receiver assigned to the first radio antenna and to at least one second radio receiver assigned to the second radio antenna, and wherein the radio signal forwarded is evaluated by the following steps: - Synchronizing the first radio receiver with a preconfigured frame structure and synchronizing the second radio receiver with a preconfigured frame structure, - Selecting at least one identical time slot out of the frame structure at the first radio receiver and the second radio receiver, and - Providing timing information of the selected time slot from the first radio receiver to the second radio receiver, from the second radio receiver to the first radio receiver and/or from the respective radio receiver (14, 18) to a central unit for calculating a time difference of arrival. - Synchronizing the first radio receiver with a preconfigured frame structure and synchronizing the second radio receiver with a preconfigured frame structure, - Selecting at least one identical time slot out of the frame structure at the first radio receiver and the second radio receiver, and - Providing timing information of the selected time slot from the first radio receiver to the second radio receiver, from the second radio receiver to the first radio receiver and/or from the respective radio receiver (14, 18) to a central unit for calculating a time difference of arrival.
A method comprising: receiving a radiographic image dataset representing a sequential radiographic three-dimensional scan (600, 701A, 702A) of a region of a human subject (205, 300, 410), wherein said radiographic image dataset encodes one or more radiopaque markers (301, 302) placed in the region of the human subject receiving 3D image data, acquired during said sequential radiographic 3D scan, representing an optical scan of a surface of said region, wherein said 3D image data is acquired simultaneously with said sequential radiographic scan of said human subject; registering the 3D image data to a surface mesh model of the human subject based on, at least in part, the one or more radiopaque markers; synchronizing said optical scan with said radiographic scan in a time-dependent manner based, at least in part, on a known pixel sampling pitch of said radiographic scan; tracking a time-dependent motion of said subject during said acquisition within the region of said human subject, relative to a specified position, based, at least in part, on said 3D image data registered to the surface mesh model of the human subject; and using said tracking to determine corrections for said radiographic image dataset, based, at least in part, on a known transformation between corresponding coordinate systems of said radiographic image dataset and said 3D image data. receiving a radiographic image dataset representing a sequential radiographic three-dimensional scan (600, 701A, 702A) of a region of a human subject (205, 300, 410), wherein said radiographic image dataset encodes one or more radiopaque markers (301, 302) placed in the region of the human subject receiving 3D image data, acquired during said sequential radiographic 3D scan, representing an optical scan of a surface of said region, wherein said 3D image data is acquired simultaneously with said sequential radiographic scan of said human subject; registering the 3D image data to a surface mesh model of the human subject based on, at least in part, the one or more radiopaque markers; synchronizing said optical scan with said radiographic scan in a time-dependent manner based, at least in part, on a known pixel sampling pitch of said radiographic scan; tracking a time-dependent motion of said subject during said acquisition within the region of said human subject, relative to a specified position, based, at least in part, on said 3D image data registered to the surface mesh model of the human subject; and using said tracking to determine corrections for said radiographic image dataset, based, at least in part, on a known transformation between corresponding coordinate systems of said radiographic image dataset and said 3D image data.
A system comprising: a memory component comprising a plurality of executable instructions; and a processing component adapted to execute the instructions to perform a method comprising: receiving an image frame comprising a plurality of pixels, selecting a kernel (310, 350) of the image frame, wherein the kernel comprises a center pixel (320, 360) and a plurality of neighbor pixels (330, 370), determining a plurality of linearity measurements based on values of the center pixel and the neighbor pixels, updating a spatial anomaly score based on the linearity measurements, wherein the spatial anomaly score corresponds to a degree of non-linearity exhibited by the center pixel, and selectively detecting the center pixel as a spatially anomalous pixel by comparing the updated spatial anomaly score to a spatial anomaly score threshold. a memory component comprising a plurality of executable instructions; and a processing component adapted to execute the instructions to perform a method comprising: receiving an image frame comprising a plurality of pixels, selecting a kernel (310, 350) of the image frame, wherein the kernel comprises a center pixel (320, 360) and a plurality of neighbor pixels (330, 370), determining a plurality of linearity measurements based on values of the center pixel and the neighbor pixels, updating a spatial anomaly score based on the linearity measurements, wherein the spatial anomaly score corresponds to a degree of non-linearity exhibited by the center pixel, and selectively detecting the center pixel as a spatially anomalous pixel by comparing the updated spatial anomaly score to a spatial anomaly score threshold. receiving an image frame comprising a plurality of pixels, selecting a kernel (310, 350) of the image frame, wherein the kernel comprises a center pixel (320, 360) and a plurality of neighbor pixels (330, 370), determining a plurality of linearity measurements based on values of the center pixel and the neighbor pixels, updating a spatial anomaly score based on the linearity measurements, wherein the spatial anomaly score corresponds to a degree of non-linearity exhibited by the center pixel, and selectively detecting the center pixel as a spatially anomalous pixel by comparing the updated spatial anomaly score to a spatial anomaly score threshold.