mhurhangee/ep-ind-claims huggingface dataset:
Method for preparing collagen powder, comprising the steps of: producing at a temperature of 50 °C or less a wet collagen product by subjecting a hide or skin to a size reduction step; an alkaline and/or an oxidizing treatment step; and a neutralizing step; followed by drying of said wet collagen product for a time period of 2 minutes or less using a roller dryer to obtain said collagen powder. producing at a temperature of 50 °C or less a wet collagen product by subjecting a hide or skin to a size reduction step; an alkaline and/or an oxidizing treatment step; and a neutralizing step; followed by drying of said wet collagen product for a time period of 2 minutes or less using a roller dryer to obtain said collagen powder.
A process for the manufacture of a catalyst comprising a catalytically active metal dispersed on a support, which process comprises: a) preparing a support having an organic complex of the catalytically active metal deposited thereon by treating a porous support with a compound or salt of the metal and a nitrogen-containing organic compound selected from (i) amino acids and (ii) compounds containing both an amino group and an alcohol group, to form the organic metal complex on the support; b) partially decomposing the organic metal complex on the support to the extent that the partially decomposed product retains between 10 and 95% by weight of the dry weight attributed to the organic complex prior to partial decomposition, and exhibits one or more infra-red absorption bands between 2100-2200 cm -1 that are not present in the organic complex before partial decomposition; and c) converting the partially decomposed organic metal complex into catalytically active metal. a) preparing a support having an organic complex of the catalytically active metal deposited thereon by treating a porous support with a compound or salt of the metal and a nitrogen-containing organic compound selected from (i) amino acids and (ii) compounds containing both an amino group and an alcohol group, to form the organic metal complex on the support; b) partially decomposing the organic metal complex on the support to the extent that the partially decomposed product retains between 10 and 95% by weight of the dry weight attributed to the organic complex prior to partial decomposition, and exhibits one or more infra-red absorption bands between 2100-2200 cm -1 that are not present in the organic complex before partial decomposition; and c) converting the partially decomposed organic metal complex into catalytically active metal.
An IV-catheter insertion device, comprising - a catheter hub at the proximal end of a tubular catheter, - a needle hub with an attached hollow needle, the hollow needle extending through the catheter hub and the tubular catheter in the ready position such that that needle tip projects distally of the distal end of the tubular catheter, and - a needle guard element; characterised in that, it further comprises - a tubular protective barrel which is releasably joined to the catheter hub in a ready position, wherein the needle hub is displaceable in the tubular protective barrel, and in that - the needle guard element has a proximal rear wall (4.1) that is fixed at a distal end area of the tubular protective barrel by means of holding members, and - wherein the tubular protective barrel and the catheter hub are held by the needle guard element in the ready position, and the needle guard element is released from the catheter hub in a protected position in which the needle guard element covers the needle tip. - a catheter hub at the proximal end of a tubular catheter, - a needle hub with an attached hollow needle, the hollow needle extending through the catheter hub and the tubular catheter in the ready position such that that needle tip projects distally of the distal end of the tubular catheter, and - a needle guard element; - a tubular protective barrel which is releasably joined to the catheter hub in a ready position, wherein the needle hub is displaceable in the tubular protective barrel, and in that - the needle guard element has a proximal rear wall (4.1) that is fixed at a distal end area of the tubular protective barrel by means of holding members, and - wherein the tubular protective barrel and the catheter hub are held by the needle guard element in the ready position, and the needle guard element is released from the catheter hub in a protected position in which the needle guard element covers the needle tip.
Method for the vibration analysis of an engine, characterised in that it comprises the following steps executed by processing means: - spectral acquisition of vibration signals relating to the engine in order to form at least one spectrogram that represents an operating state of said engine, - selection of at least one zone of interest in said at least one spectrogram, - construction for each zone of interest of a vector of interest that represents said zone of interest by projecting said zone of interest onto an underlying representation space, - construction of a set of comparison vectors that is representative of a set of corresponding comparison zones with said zone of interest by projecting each one of said comparison zones onto said representation space, said set of comparison zones belonging to annotated spectrograms recorded in a reference database, - calculation of a similarity score between said vector of interest and each one of said comparison vectors for determining a subset of comparison vectors that have a similarity score that exceeds a predetermined level, - selection of a subset of comparison zones (C1-C6) associated to said subset of comparison vectors, said subset of comparison zones (C1-C6) having vibration behaviours similar to those of said zone of interest, and - recovery of said subset of comparison zones (C1-C6) and annotations (n1-n6) associated with said subset of comparison zones. - spectral acquisition of vibration signals relating to the engine in order to form at least one spectrogram that represents an operating state of said engine, - selection of at least one zone of interest in said at least one spectrogram, - construction for each zone of interest of a vector of interest that represents said zone of interest by projecting said zone of interest onto an underlying representation space, - construction of a set of comparison vectors that is representative of a set of corresponding comparison zones with said zone of interest by projecting each one of said comparison zones onto said representation space, said set of comparison zones belonging to annotated spectrograms recorded in a reference database, - calculation of a similarity score between said vector of interest and each one of said comparison vectors for determining a subset of comparison vectors that have a similarity score that exceeds a predetermined level, - selection of a subset of comparison zones (C1-C6) associated to said subset of comparison vectors, said subset of comparison zones (C1-C6) having vibration behaviours similar to those of said zone of interest, and - recovery of said subset of comparison zones (C1-C6) and annotations (n1-n6) associated with said subset of comparison zones.
A power tool comprising: - a tool, - a power source arranged to power the tool, - a throttle lever, - a circuit board, - a human machine interface comprising components (15, 17, 19) arranged on the circuit board, - a magnet operably connected to the throttle lever, and - a sensor arrangement configured to sense the intensity of the magnetic field of the magnet, wherein the sensor arrangement is arranged on the circuit board. - a tool, - a power source arranged to power the tool, - a throttle lever, - a circuit board, - a human machine interface comprising components (15, 17, 19) arranged on the circuit board, - a magnet operably connected to the throttle lever, and - a sensor arrangement configured to sense the intensity of the magnetic field of the magnet, wherein the sensor arrangement is arranged on the circuit board.
A method performed by a base station in a wireless communication system, the method comprising: transmitting configuration information on a group-common radio network temporary identifier, RNTI, for downlink control information, DCI, reception by a plurality of user equipments, UEs; generating a first DCI for the plurality of UEs, which is scrambled with the group-common RNTI, the first DCI including control information being common to the plurality of UEs for a non-orthogonal multiple access, NOMA, wherein the first DCI comprises indication of a time-frequency resource for the NOMA; transmitting the first DCI to the plurality of UEs; generating a second DCI for a UE among the plurality of UEs which is scrambled with a UE-specific RNTI, the second DCI including control information being specific to the UE for the NOMA; transmitting the second DCI to the UE; and receiving data for the NOMA based on the first DCI and the second DCI from the UE on the time-frequency resource, wherein the time-frequency resource to receive the data for the NOMA is shared with the plurality of UEs. transmitting configuration information on a group-common radio network temporary identifier, RNTI, for downlink control information, DCI, reception by a plurality of user equipments, UEs; generating a first DCI for the plurality of UEs, which is scrambled with the group-common RNTI, the first DCI including control information being common to the plurality of UEs for a non-orthogonal multiple access, NOMA, wherein the first DCI comprises indication of a time-frequency resource for the NOMA; transmitting the first DCI to the plurality of UEs; generating a second DCI for a UE among the plurality of UEs which is scrambled with a UE-specific RNTI, the second DCI including control information being specific to the UE for the NOMA; transmitting the second DCI to the UE; and receiving data for the NOMA based on the first DCI and the second DCI from the UE on the time-frequency resource, wherein the time-frequency resource to receive the data for the NOMA is shared with the plurality of UEs.
A precursor composition, comprising, before curing: ethylene propylene diene monomer (EPDM), an aramid, a filler selected from a group consisting of zinc oxide, silica, magnesium hydroxide, and combinations thereof, and a carbon material comprising carbon nanotubes, graphite, or a combination thereof, the precursor composition comprising the EPDM at from 70 parts by weight to 150 parts by weight or at from from 60 parts by weight to 110 parts by weight and the carbon material at from 20.0 parts by weight to 46.0 parts by weight. ethylene propylene diene monomer (EPDM), an aramid, a filler selected from a group consisting of zinc oxide, silica, magnesium hydroxide, and combinations thereof, and a carbon material comprising carbon nanotubes, graphite, or a combination thereof, the precursor composition comprising the EPDM at from 70 parts by weight to 150 parts by weight or at from from 60 parts by weight to 110 parts by weight and the carbon material at from 20.0 parts by weight to 46.0 parts by weight.
A method performed by a network node (130, 140, 160) of a wireless 5G communication network, for handling a session comprising data packets to be transmitted to a wireless device, the wireless 5G communication network comprising a first core network node, a second core network node, a first base station and a second base station, wherein the session comprises data packets routed via a plurality of anchor network nodes (115, 120) from a data network, and, in connection with the wireless device handing over from the first base station and the first core network node to the second base station and the second core network node, the method comprising: receiving information of the number of the plurality of anchor network nodes (115, 120) via which data packets of the session are routed; receiving data packets from the plurality of anchor network nodes (115, 120); receiving an end marker of each of the plurality of anchor network nodes (115, 120), each end marker indicating a last data packet of one of the plurality of anchor network nodes routed via the first core network node and, when the number of received end markers equals the number of the plurality of anchor network nodes, triggering to send to the wireless device any data packets related to the session not routed via the first base station stored in a buffer of the second base station. receiving information of the number of the plurality of anchor network nodes (115, 120) via which data packets of the session are routed; receiving data packets from the plurality of anchor network nodes (115, 120); receiving an end marker of each of the plurality of anchor network nodes (115, 120), each end marker indicating a last data packet of one of the plurality of anchor network nodes routed via the first core network node and, when the number of received end markers equals the number of the plurality of anchor network nodes, triggering to send to the wireless device any data packets related to the session not routed via the first base station stored in a buffer of the second base station.
A disperser for dispersing assemblies of biological material selected from plant tissue, assemblies of cultured plant cells and assemblies of plant embryogenic mass suspended in a liquid into smaller assemblies of biological material, comprising a flow channel, including at least one constriction (4, 6, 8, 12, 14, 16, 18, 43, 45, 47, 49, 51, 53, 55, 57, 59), such that assemblies of biological material flowing through the flow channel are first subjected to axially extensional strain and radially compressional strain, and then to axially compressional strain and radially extensional strain from fluid dynamics forces, characterized in that the flow channel is arranged in a loop configuration for recirculation of the assemblies to be dispersed in the flow channel, wherein the flow channel comprises at least two constrictions (4, 6, 8, 12, 14, 16, 18, 43, 45, 47, 49, 51, 53, 55, 57, 59), wherein each constriction of the flow channel has an inner diameter, which is equal to or smaller than the inner diameter of the constriction immediately up-stream of thereof, wherein the flow channel includes an intermediate portion (23, 25, 27, 32, 34, 36, 38, 65, 69, 76) having a constant cross-section, between each constriction, wherein each intermediate portion has length at least equal to the assemblies of biological matter to be dispersed, wherein the constrictions have a cross-sectional area in the interval from 0.75 to 1300 mm 2, wherein the disperser comprises means of recirculation the liquid in the flow channel.
A sensor (100, 300, 400, 500, 600, 700, 800, 900, 1000, 1340), comprising a first electrode and a second electrode; and an infrared photoelectric conversion layer between the first electrode and the second electrode, the infrared photoelectric conversion layer being configured to absorb light in at least a portion of an infrared wavelength spectrum and convert the absorbed light into an electrical signal, wherein the infrared photoelectric conversion layer includes a first material having a maximum absorption wavelength in the infrared wavelength spectrum, a second material forming a pn junction with the first material, and a third material being an organic material and having an energy band gap greater than an energy band gap of the first material by greater than or equal to 1.0 eV, wherein the first material, the second material, and the third material are different from each other, wherein each of the first material, the second material, and the third material is a non-polymeric material, and characterized in that the infrared photoelectric conversion layer comprises a mixture of the first material, the second material, and the third material. an infrared photoelectric conversion layer between the first electrode and the second electrode, the infrared photoelectric conversion layer being configured to absorb light in at least a portion of an infrared wavelength spectrum and convert the absorbed light into an electrical signal, wherein the infrared photoelectric conversion layer includes a first material having a maximum absorption wavelength in the infrared wavelength spectrum, a second material forming a pn junction with the first material, and a third material being an organic material and having an energy band gap greater than an energy band gap of the first material by greater than or equal to 1.0 eV, a first material having a maximum absorption wavelength in the infrared wavelength spectrum, a second material forming a pn junction with the first material, and a third material being an organic material and having an energy band gap greater than an energy band gap of the first material by greater than or equal to 1.0 eV, wherein the first material, the second material, and the third material are different from each other, wherein each of the first material, the second material, and the third material is a non-polymeric material, and characterized in that the infrared photoelectric conversion layer comprises a mixture of the first material, the second material, and the third material.
A drill head for deep-hole drilling including one or a plurality of cutting blade tips (2A, 2B, 2C) mounted by brazing to face a cutting chip discharge port (11, 12, 18) opened on a head distal end surface, guide pads (3A, 3B) mounted on a plurality of positions of a circumferential surface at the head distal end side, and a hollow inside portion made into a cutting chip discharge passage communicating with the cutting chip discharge port (11, 12, 18), wherein a guide pad portion having an arc surface is formed on the outer end surface of the cutting blade tip (2B, 2D) taking charge of cutting a circumferential side, wherein the blade point side of the cutting blade tip (2B, 2D) taking charge of cutting a circumferential side is set upward, a margin portion facing the front edge in a cutting rotation direction and a flank face to be spaced apart from the inner circumference of the cutting hole along the rear side in the cutting rotation direction from the margin portion are formed at an upper portion side of the outer end surface of the cutting blade tip(2B, 2D), and the guide pad portion is formed at a lower portion side of the outer end surface of the cutting blade tip (2B, 2D), characterised in that the margin portion and the guide pad portion are separated from each other by a groove portion. one or a plurality of cutting blade tips (2A, 2B, 2C) mounted by brazing to face a cutting chip discharge port (11, 12, 18) opened on a head distal end surface, guide pads (3A, 3B) mounted on a plurality of positions of a circumferential surface at the head distal end side, and a hollow inside portion made into a cutting chip discharge passage communicating with the cutting chip discharge port (11, 12, 18), wherein a guide pad portion having an arc surface is formed on the outer end surface of the cutting blade tip (2B, 2D) taking charge of cutting a circumferential side, wherein the blade point side of the cutting blade tip (2B, 2D) taking charge of cutting a circumferential side is set upward, a margin portion facing the front edge in a cutting rotation direction and a flank face to be spaced apart from the inner circumference of the cutting hole along the rear side in the cutting rotation direction from the margin portion are formed at an upper portion side of the outer end surface of the cutting blade tip(2B, 2D), and the guide pad portion is formed at a lower portion side of the outer end surface of the cutting blade tip (2B, 2D), characterised in that the margin portion and the guide pad portion are separated from each other by a groove portion.
Steeping device for malting, comprising a vessel for containing a cereal/water suspension and a single tube which is arranged inside said vessel and has a lower end and an upper end that are both in communication with the vessel, characterised in that the device comprises an injector which is fluidically connected to the inside of said tube and cooperates with the lower end of said tube in order to bring about a controlled flow of said cereal/water suspension by injecting a gaseous fluid, the injector comprising an end injection portion formed by a dynamic jacket that surrounds said tube, and the dynamic jacket sealingly surrounding said tube in the vicinity of said lower end, and in that at least one stabiliser is attached to a side wall of the vessel and to an annular wall of the tube.
Composite structure, comprising: (a) a base structure which can be in particular a sheet metal formed part or cast part, (b) and a generatively formed functional structure (10; 9) (c) which is generatively formed on the base structure and is connected to the base structure by means of the generative forming, wherein (d) the base structure is a component of a vehicle body or an add-on part of a vehicle body, and (e) the functional structure is connected to the base structure in a frictional or interlocking and optionally also integrally bonded manner, wherein the base structure has one or a plurality of undercut connection elements which is or are formed by the generative forming of the functional structure and so the functional structure is anchored to the connection element(s) in an interlocking or frictional manner. (a) a base structure which can be in particular a sheet metal formed part or cast part, (b) and a generatively formed functional structure (10; 9) (c) which is generatively formed on the base structure and is connected to the base structure by means of the generative forming, wherein (d) the base structure is a component of a vehicle body or an add-on part of a vehicle body, and (e) the functional structure is connected to the base structure in a frictional or interlocking and optionally also integrally bonded manner, wherein the base structure has one or a plurality of undercut connection elements which is or are formed by the generative forming of the functional structure and so the functional structure is anchored to the connection element(s) in an interlocking or frictional manner.
A system, comprising: a mobile terminal for, when a message is received from an Over-The-Air, OTA, server, dividing OTA data, included in the message, into data segments of a predetermined size depending on a size of the message; and a smart card for receiving from the mobile terminal each of the data segments, and decrypting the OTA data, wherein the smart card: receives the OTA data, decrypts and extracts the OTA data using a first type of OTA key, and,if the extracted OTA data is not encrypted, stores a first type of extracted OTA data in a first storage unit; and if the extracted OTA data is encrypted decrypts the extracted OTA data, extracted using the first type of OTA key, using a second type of OTA key, and stores a second type of extracted OTA data in a second storage unit. a mobile terminal for, when a message is received from an Over-The-Air, OTA, server, dividing OTA data, included in the message, into data segments of a predetermined size depending on a size of the message; and a smart card for receiving from the mobile terminal each of the data segments, and decrypting the OTA data, wherein the smart card: receives the OTA data, decrypts and extracts the OTA data using a first type of OTA key, and,if the extracted OTA data is not encrypted, stores a first type of extracted OTA data in a first storage unit; and if the extracted OTA data is encrypted decrypts the extracted OTA data, extracted using the first type of OTA key, using a second type of OTA key, and stores a second type of extracted OTA data in a second storage unit. receives the OTA data, decrypts and extracts the OTA data using a first type of OTA key, and,if the extracted OTA data is not encrypted, stores a first type of extracted OTA data in a first storage unit; and if the extracted OTA data is encrypted decrypts the extracted OTA data, extracted using the first type of OTA key, using a second type of OTA key, and stores a second type of extracted OTA data in a second storage unit.