mhurhangee/patent-ind-claim-en huggingface dataset:
Device for anchoring a pole (P) for a beach parasol in the sand or in a sandy soil, comprising a buriable plate (Pf) manufactured from a flexible or semi-rigid material, a sleeve (Mn) intended to receive said pole, the sleeve (Mn) being associated with said plate by means of a junction zone (Zj), the sleeve (Mn) opening out on both sides, characterised in that the sleeve (Mn) comprises a tubular inner wall (Pt) connected to the outer wall (Tc) by means of radial ribs (Nv), said radial ribs being extended towards the inside of the tubular inner wall (Pt) so as to come into contact with the wall constituting the pole (T).
A horse riding saddle comprising a supporting frame , which defines a seat which extends along a longitudinal axis of the saddle , and at least one first flap and second flap , which are associated with said supporting frame and are arranged on opposite sides with respect to said longitudinal axis , said first and second flaps being stably associated, at a respective front resting portion , with a knee roll which defines a respective contact body for a portion of the leg of the user, wherein said knee rolls have a coupling surface which is designed to be arranged so as to face a respective front resting portion of said flap and which comprises at least one portion which defines a concave surface which extends around an axis which is substantially parallel to said longitudinal axis of said saddle characterized in that said knee rolls have, already at the time when they are associated with the respective flaps , said respective coupling surface comprising the at least one portion with said concave surface.
A polysiloxane-substituted quinacridone pigment characterized in that a polysiloxane grouping is bonded to one of the quinacridone nitrogen atoms via a hydrocarbon linking group, the hydrocarbon linking group bearing a hydroxyl group on a carbon atom α or β to the quinacridone nitrogen atom, the quinacridone pigment being of the formula: where L is a hydrocarbon group, Sil is a polysiloxane grouping and the broken line indicates that the hydroxyl substituent is attached to a carbon atom α or β to the quinacridone nitrogen atom; and R is hydrogen, a C 1 -C 3 alkyl group or a halogen.
A molten fuel nuclear reactor comprising: a containment vessel and vessel head ; a reactor core configured to contain a molten fuel salt enclosed within the containment vessel and vessel head, the reactor core having an upper region and a lower region; a first heat exchanger enclosed within the containment vessel and vessel head, the heat exchanger configured to transfer heat from the molten fuel salt in the reactor core to a primary coolant; a neutron reflector containing at least some neutron-reflecting liquid; and a circulation system configured to circulate the at least some neutron-reflecting liquid in the neutron reflector. a containment vessel and vessel head ; a reactor core configured to contain a molten fuel salt enclosed within the containment vessel and vessel head, the reactor core having an upper region and a lower region; a first heat exchanger enclosed within the containment vessel and vessel head, the heat exchanger configured to transfer heat from the molten fuel salt in the reactor core to a primary coolant; a neutron reflector containing at least some neutron-reflecting liquid; and a circulation system configured to circulate the at least some neutron-reflecting liquid in the neutron reflector.
A method to perform a service based on a user-service mapping model, the method comprising: receiving , by a scanner , an encrypted user ID from a user equipment ; forwarding , by the scanner , the encrypted user ID together with a service ID to a server ; decrypting , by the server , the encrypted user ID forwarded by the scanner into the user ID; transmitting, by the server , a first message generated using a random number and an encrypted first response corresponding to the first message, in response to the decryption of the encrypted user ID forwarded by the scanner and a verification that the user is a legitimate user on the basis of the decrypted user ID; receiving , by the scanner , the first message generated using the random number and the encrypted first response corresponding to the first message transmitted by the server ; forwarding , by the scanner , the first message to the user equipment ; receiving , by the scanner , a second message that is generated by the user equipment on the basis of the first message; validating, by the scanner , a validity of the second message based on the encrypted first response corresponding to the first message; identifying , by the scanner , a proximity authentication result between the user equipment and the scanner by use of a time difference between the first message and the second message; and initiating , by the scanner , a service customized to the user based on the validation and the proximity authentication result. receiving , by a scanner , an encrypted user ID from a user equipment ; forwarding , by the scanner , the encrypted user ID together with a service ID to a server ; decrypting , by the server , the encrypted user ID forwarded by the scanner into the user ID; transmitting, by the server , a first message generated using a random number and an encrypted first response corresponding to the first message, in response to the decryption of the encrypted user ID forwarded by the scanner and a verification that the user is a legitimate user on the basis of the decrypted user ID; receiving , by the scanner , the first message generated using the random number and the encrypted first response corresponding to the first message transmitted by the server ; forwarding , by the scanner , the first message to the user equipment ; receiving , by the scanner , a second message that is generated by the user equipment on the basis of the first message; validating, by the scanner , a validity of the second message based on the encrypted first response corresponding to the first message; identifying , by the scanner , a proximity authentication result between the user equipment and the scanner by use of a time difference between the first message and the second message; and initiating , by the scanner , a service customized to the user based on the validation and the proximity authentication result.
A polyethylene formulation comprising: a bimodal high density polyethylene (HDPE) composition, and 0.1 ppm to 300 ppm of a nucleating agent, wherein the bimodal HDPE composition comprises a density of 0.940 g/cm 3 to 0.970 g/cm 3 when measured according to ASTM D792, and a melt index (I 2 ) of 1.0g/10 min. to 10.0 g/10 min. when measured according to ASTM D1238 at 190°C and a 2.16 kg load, wherein the bimodal HDPE composition comprises an infrared cumulative detector fraction (CDF IR ) of greater than 0.27 and an infrared cumulative detector fraction to light scattering cumulative detector fraction ratio (CDF IR / CDF LS ) from 0.7 to 2.0, wherein the CDF IR is computed by measuring the area fraction of an IR5 measurement channel (IR) detector chromatogram less than 15,000 g/mol molecular weight using Gel Permeation Chromatography (GPC); and wherein the CDF LS is computed by measuring the area fraction of a low angle laser light scattering (LALLS) detector chromatogram greater than 1,000,000 g/mol molecular weight using GPC. a bimodal high density polyethylene (HDPE) composition, and 0.1 ppm to 300 ppm of a nucleating agent, wherein the bimodal HDPE composition comprises a density of 0.940 g/cm 3 to 0.970 g/cm 3 when measured according to ASTM D792, and a melt index (I 2 ) of 1.0g/10 min. to 10.0 g/10 min. when measured according to ASTM D1238 at 190°C and a 2.16 kg load, wherein the bimodal HDPE composition comprises an infrared cumulative detector fraction (CDF IR ) of greater than 0.27 and an infrared cumulative detector fraction to light scattering cumulative detector fraction ratio (CDF IR / CDF LS ) from 0.7 to 2.0, wherein the CDF IR is computed by measuring the area fraction of an IR5 measurement channel (IR) detector chromatogram less than 15,000 g/mol molecular weight using Gel Permeation Chromatography (GPC); and wherein the CDF LS is computed by measuring the area fraction of a low angle laser light scattering (LALLS) detector chromatogram greater than 1,000,000 g/mol molecular weight using GPC. wherein the CDF IR is computed by measuring the area fraction of an IR5 measurement channel (IR) detector chromatogram less than 15,000 g/mol molecular weight using Gel Permeation Chromatography (GPC); and wherein the CDF LS is computed by measuring the area fraction of a low angle laser light scattering (LALLS) detector chromatogram greater than 1,000,000 g/mol molecular weight using GPC.
A method comprising: conveying a downhole tool within a wellbore , wherein the downhole tool comprises a laser cutting apparatus and a sealing material disposed at least partially within or around a housing of the laser cutting apparatus or another portion of the downhole tool ; operating the laser cutting apparatus to remove material from at least one of: a subterranean formation penetrated by the wellbore; a casing secured within the wellbore; and a cement sheath securing the casing within the wellbore; and directing the sealing material into a void created by the material removal. conveying a downhole tool within a wellbore , wherein the downhole tool comprises a laser cutting apparatus and a sealing material disposed at least partially within or around a housing of the laser cutting apparatus or another portion of the downhole tool ; operating the laser cutting apparatus to remove material from at least one of: a subterranean formation penetrated by the wellbore; a casing secured within the wellbore; and a cement sheath securing the casing within the wellbore; and a subterranean formation penetrated by the wellbore; a casing secured within the wellbore; and a cement sheath securing the casing within the wellbore; and directing the sealing material into a void created by the material removal.
A method for power-assisted movement of a door having a door actuator for power-assisted movement of the door between a closed position (SP) and an open position (OP), the door actuator having a signal receiving unit and an electronic controller , wherein a power-assisted opening movement of the door is carried out by means of a motor, in particular an electric motor, of the door actuator and wherein the power-assisted closing movement of the door is carried out by a closing energy storage device , in particular by a spring, and wherein the method is characterized by the following steps, which are carried out in the order listed: a) receipt of an alarm signal by the signal receiving unit and causing the electronic controller to switch from normal operation to emergency operation, b) power-assisted opening movement of the door into the open position (OP) by the door actuator based on receipt of an opening signal by the signal receiving unit , wherein, during the power-assisted opening movement, a motor of the door actuator within a defined envelope curve compensates for the force of the spring of the closing energy storage device , wherein the envelope curve results from application of the force of the spring over the opening time or the opening angle, in particular wherein the envelope curve deviates by +/- 30%, preferably by +/-20%, particularly preferably by +/-10% from the force of the spring, and c) power-assisted closing movement of the door into the closed position (SP) after the power-assisted opening movement by the door actuator . a) receipt of an alarm signal by the signal receiving unit and causing the electronic controller to switch from normal operation to emergency operation, b) power-assisted opening movement of the door into the open position (OP) by the door actuator based on receipt of an opening signal by the signal receiving unit , wherein, during the power-assisted opening movement, a motor of the door actuator within a defined envelope curve compensates for the force of the spring of the closing energy storage device , wherein the envelope curve results from application of the force of the spring over the opening time or the opening angle, in particular wherein the envelope curve deviates by +/- 30%, preferably by +/-20%, particularly preferably by +/-10% from the force of the spring, and c) power-assisted closing movement of the door into the closed position (SP) after the power-assisted opening movement by the door actuator .
A method of random access resource selection, the method comprising: transmitting , by a target Base Station, BS, a first Synchronization Signal Block, SSB, to a User Equipment, UE, the first SSB associated with a first contention-free random access resource for the UE to transmit a random access preamble; transmitting , by the target BS, a second SSB to the UE, the second SSB associated with a contention-based random access resource; and in a case that a first Synchronization Signal-Reference Signal Received Power, SS-RSRP, of the first SSB is not greater than an SS-RSRP threshold and a second SS-RSRP of the second SSB is greater than the SS-RSRP threshold, receiving , by the target BS, the random access preamble from the UE using the contention-based random access resource, wherein: when dedicated Radio Resource Control, RRC, signaling, generated by the target BS, indicates the contention-based random access resource, the contention-based random access resource is determined based on the dedicated RRC signaling, and when the dedicated RRC signaling does not indicate the contention-based random access resource, the contention-based random access resource is determined based on a common random access configuration broadcast by a source BS. transmitting , by a target Base Station, BS, a first Synchronization Signal Block, SSB, to a User Equipment, UE, the first SSB associated with a first contention-free random access resource for the UE to transmit a random access preamble; transmitting , by the target BS, a second SSB to the UE, the second SSB associated with a contention-based random access resource; and in a case that a first Synchronization Signal-Reference Signal Received Power, SS-RSRP, of the first SSB is not greater than an SS-RSRP threshold and a second SS-RSRP of the second SSB is greater than the SS-RSRP threshold, receiving , by the target BS, the random access preamble from the UE using the contention-based random access resource, wherein: when dedicated Radio Resource Control, RRC, signaling, generated by the target BS, indicates the contention-based random access resource, the contention-based random access resource is determined based on the dedicated RRC signaling, and when the dedicated RRC signaling does not indicate the contention-based random access resource, the contention-based random access resource is determined based on a common random access configuration broadcast by a source BS. when dedicated Radio Resource Control, RRC, signaling, generated by the target BS, indicates the contention-based random access resource, the contention-based random access resource is determined based on the dedicated RRC signaling, and when the dedicated RRC signaling does not indicate the contention-based random access resource, the contention-based random access resource is determined based on a common random access configuration broadcast by a source BS.
Method to determine the phosphorus content in a steel bath during the LD process, wherein, after and/or during the process of blowing in oxygen, the bath temperature and the proportion of phosphorus is measured, characterised in that the development of the phosphorus concentration in the steel is determined by analysis of at least the content of CO and CO2 in the exhaust gas and the exhaust gas flow, wherein the phosphorus content is determined from the smoothed carbon burn-up, the measured temperature of the melt, the amount of phosphorus in the converter from the added raw materials at the start of the blowing, the added amount of slag and the basicity of the slag, wherein the calculation is performed according to the formula, P = f dC dt , T , P sum , Sl , Bas , ... where: [P ]... Concentration of phosphorus in the steel, dC dt ... C-burn-up, T ... Temperature of the melt, P sum ... P-amount in the converter, Sl ... Amount of slag, Bas ... Basicity of the slag, wherein the phosphorus content is calculated using the following formula: P = k 1 ⋅ ln dC dt + k 2 ⋅ e − k 3 T + k 4 ⋅ P sum Sl + k 5 ⋅ Bas + const or P = k 1 ⋅ ln dC dt + k 2 ⋅ e − k 3 + k 4 dC dt T + k 5 ⋅ P sum Sl + k 6 ⋅ Bas + const Wherein the parameters k 1 -k 6 and const are determined from records of different batches, for which the phosphorus content of the finished steel was measured by chemical analysis, wherein the phosphorus content of the finished steel melt is measured by chemical analysis, and the parameters of the calculation are iteratively adapted with these values using the Gauss method. [P ]... Concentration of phosphorus in the steel, dC dt ... C-burn-up, T ... Temperature of the melt, P sum ... P-amount in the converter, Sl ... Amount of slag, Bas ... Basicity of the slag, wherein the phosphorus content is calculated using the following formula: P = k 1 ⋅ ln dC dt + k 2 ⋅ e − k 3 T + k 4 ⋅ P sum Sl + k 5 ⋅ Bas + const or P = k 1 ⋅ ln dC dt + k 2 ⋅ e − k 3 + k 4 dC dt T + k 5 ⋅ P sum Sl + k 6 ⋅ Bas + const Wherein the parameters k 1 -k 6 and const are determined from records of different batches, for which the phosphorus content of the finished steel was measured by chemical analysis, wherein the phosphorus content of the finished steel melt is measured by chemical analysis, and the parameters of the calculation are iteratively adapted with these values using the Gauss method.
Industrial installation (1; 2; 3) for cleaning workpieces, such as machined metal parts, in particular engine components or transmission components, the installation comprising: a housing for enclosing a workspace above a platform ; an industrial robot for handling a workpiece in the workspace, said robot being mounted inside the housing , in particular on the platform ; an air recirculation device having a vapour condenser and ductwork with one or more intakes for admitting vapour-charged air from the workspace to the vapour condenser and one or more exits for returning dehumidified air to the workspace , the vapour condenser preferably including a heat recovery unit (40; 42; 50; 52); characterized in that the vapour condenser is arranged below the top of the housing, preferably below the platform ; and in that each of the one or more intakes is arranged at a level below the upper half of the workspace, preferably on or below the platform . a housing for enclosing a workspace above a platform ; an industrial robot for handling a workpiece in the workspace, said robot being mounted inside the housing , in particular on the platform ; an air recirculation device having a vapour condenser and ductwork with one or more intakes for admitting vapour-charged air from the workspace to the vapour condenser and one or more exits for returning dehumidified air to the workspace , the vapour condenser preferably including a heat recovery unit (40; 42; 50; 52); characterized in that the vapour condenser is arranged below the top of the housing, preferably below the platform ; and in that each of the one or more intakes is arranged at a level below the upper half of the workspace, preferably on or below the platform .
A computer implemented method for determining a weld integrity test result performed by a system configured to aseptically transferring cells to a container (BR), the method comprising: welding a vial to a connector to obtain a fluid-tight seal between the vial (V) and a connector (C), the connector being provided with a pair of conduits each having one end protruding through the connector and into the vial, sealing an opposite end of one of the conduits, generating a fluid pressure different to an ambient fluid pressure at an opposite end of the other conduit, measuring a fluid pressure within at least one of the conduits, determining a fluid pressure change based on the ambient pressure and the measured fluid pressure, determining the weld integrity test result as pass or as fail based on the fluid pressure change. welding a vial to a connector to obtain a fluid-tight seal between the vial (V) and a connector (C), the connector being provided with a pair of conduits each having one end protruding through the connector and into the vial, sealing an opposite end of one of the conduits, generating a fluid pressure different to an ambient fluid pressure at an opposite end of the other conduit, measuring a fluid pressure within at least one of the conduits, determining a fluid pressure change based on the ambient pressure and the measured fluid pressure, determining the weld integrity test result as pass or as fail based on the fluid pressure change.
A wafer carrier , comprising: a pocket sized and shaped to accommodate a wafer, the pocket comprising a base and a substantially circular perimeter ; and a removable orientation marker , the removable orientation marker comprising an outer surface and an inner surface , the outer surface having an arcuate form sized and shaped to mate with the substantially circular perimeter of the pocket , and the inner surface comprising a flat face, wherein the removable orientation marker further comprises a notch at a first end of the flat face. a pocket sized and shaped to accommodate a wafer, the pocket comprising a base and a substantially circular perimeter ; and a removable orientation marker , the removable orientation marker comprising an outer surface and an inner surface , the outer surface having an arcuate form sized and shaped to mate with the substantially circular perimeter of the pocket , and the inner surface comprising a flat face, wherein the removable orientation marker further comprises a notch at a first end of the flat face.
An in vitro method for preparing a re-usable single cell or nucleus comprising: - dispersing cells or nuclei in a solution comprising acrylamide and paraformaldehyde (PFA) to produce dispersed cells or nuclei; - suspending the dispersed cells or nuclei in a solution comprising acrylamide-bisacrylamide or acrylamide-N,N'-bis(acryloyl)cystamine to produce a cell or nucleus suspension, optionally wherein the solution comprises about 1% to about 6% acrylamide-N,N'-bis(acryloyl)cystamine or about 1% to about 6% acrylamide-bisacrylamide; and - incubating the cell suspension in the presence of N,N,N',N'-tetramethylethylenediamine (TEMED) to polymerize the acrylamide, optionally wherein the TEMED is in mineral oil; to form a polyacrylamide nano-scale scaffold, which anchors the single cell cellular components in a re-usable single cell. - dispersing cells or nuclei in a solution comprising acrylamide and paraformaldehyde (PFA) to produce dispersed cells or nuclei; - suspending the dispersed cells or nuclei in a solution comprising acrylamide-bisacrylamide or acrylamide-N,N'-bis(acryloyl)cystamine to produce a cell or nucleus suspension, optionally wherein the solution comprises about 1% to about 6% acrylamide-N,N'-bis(acryloyl)cystamine or about 1% to about 6% acrylamide-bisacrylamide; and - incubating the cell suspension in the presence of N,N,N',N'-tetramethylethylenediamine (TEMED) to polymerize the acrylamide, optionally wherein the TEMED is in mineral oil;