mhurhangee/ep-ind-claims huggingface dataset:
A method of forming an article by 3D printing comprising: printing a first 3D printed region having a first radiopacity from a first polymerizable formulation; printing a second 3D printed region having a second radiopacity from a second polymerizable formulation, wherein the first radiopacity is greater than the second radiopacity; polymerizing the first polymerizable formulation and the second polymerizable formulation; wherein the first formulation is a flowable liquid formulation for 3D printing comprising: from 0.1 to 25 wt.% radiopaque particles, wherein at least 50% by weight of the particles have a diameter of at most 100 nm, as determined by light scattering measurement; and monomeric, oligomeric and/or polymeric precursors adapted for polymerization to form a solidified article. printing a first 3D printed region having a first radiopacity from a first polymerizable formulation; printing a second 3D printed region having a second radiopacity from a second polymerizable formulation, wherein the first radiopacity is greater than the second radiopacity; polymerizing the first polymerizable formulation and the second polymerizable formulation; wherein the first formulation is a flowable liquid formulation for 3D printing comprising: from 0.1 to 25 wt.% radiopaque particles, wherein at least 50% by weight of the particles have a diameter of at most 100 nm, as determined by light scattering measurement; and monomeric, oligomeric and/or polymeric precursors adapted for polymerization to form a solidified article. from 0.1 to 25 wt.% radiopaque particles, wherein at least 50% by weight of the particles have a diameter of at most 100 nm, as determined by light scattering measurement; and monomeric, oligomeric and/or polymeric precursors adapted for polymerization to form a solidified article.
A method for managing authentication data for an authentication device associated with a mobile device battery during the manufacturing process of the mobile device battery, the method comprising: accessing encrypted authentication data stored on an authentication device associated with a mobile device battery, wherein the mobile device battery is configured to provide electrical power to a mobile device and to receive an interrogation message from the mobile device; generating unencrypted authentication data for the authentication device by decrypting the encrypted authentication data; and storing the unencrypted authentication data on the authentication device associated with the mobile device battery, wherein storing the unencrypted authentication data on the authentication device enables the authentication device to provide a valid reply message in response to receiving the interrogation message from the mobile device; wherein the encrypted authentication data includes encrypted certificate data, the unencrypted authentication data includes unencrypted certificate data, and the valid reply message provided by the authentication device includes the unencrypted certificate data. accessing encrypted authentication data stored on an authentication device associated with a mobile device battery, wherein the mobile device battery is configured to provide electrical power to a mobile device and to receive an interrogation message from the mobile device; generating unencrypted authentication data for the authentication device by decrypting the encrypted authentication data; and storing the unencrypted authentication data on the authentication device associated with the mobile device battery, wherein storing the unencrypted authentication data on the authentication device enables the authentication device to provide a valid reply message in response to receiving the interrogation message from the mobile device; wherein the encrypted authentication data includes encrypted certificate data, the unencrypted authentication data includes unencrypted certificate data, and the valid reply message provided by the authentication device includes the unencrypted certificate data.
A cosmetic composition comprising: one or more substances selected from sulfated cellulose and a salt thereof; and polyhydric alcohol, wherein sulfated cellulose and the salt thereof have: the weight average molecular weight of 1,000 to 200,000; the sulfur concentration of 6.5 to 19.0 wt%; and the solubility in pure water at 20°C of 3g/L or higher.
An isolated anti CCL24 (eotaxin 2) antibody, or any antigen-binding fragment thereof, for use in the treatment of hepatic pathologies, wherein said antibody is a fully humanized antibody comprising six CDR sequences as denoted by SEQ ID Nos 1-6, wherein heavy chain variable region CDRs 1-3 correspond to SEQ ID NOs:1-3, respectively, and light chain variable region CDRs 1-3 correspond to SEQ ID NO:4-6, respectively, and a heavy chain variable region having at least 90% sequence homology to SEQ ID NO:7 and a light chain variable region having at least 90% sequence homology to SEQ ID NO: 8, wherein said hepatic pathologies are selected from the group consisting of cholestasis, intrahepatic cholestatic liver diseases preferably selected from primary sclerosing cholangitis and primary biliary cirrhosis, and cholangiocarcinoma resulting from PSC.
Pneumatic vehicle tyre with a profiled tread comprising two rows of blocks running along the shoulders and two middle rows of blocks, wherein the rows of blocks (1, 2) are separated from one another by circumferential grooves running around in the circumferential direction and the circumferential groove that runs between the two middle rows of blocks runs along the equator of the tyre, wherein in each middle row of blocks there is respectively formed a multiplicity of grooves, which run at least substantially parallel to one another and have a number of groove portions (6a, 6b, 6c, 6d), wherein a first groove portion merges into the circumferential groove running along the equator of the tyre and a further groove portion merges into the circumferential groove bounding the row of blocks on the outside, wherein these groove portions (6a, 6d) run substantially in the axial direction, characterized in that the two groove portions (6a, 6d) respectively merging into a circumferential groove are connected to one another by two further groove portions (6b, 6c) running in a V-shaped manner in relation to one another, wherein the groove has its smallest depth in the region of the tip of the V and becomes continuously deeper along the two groove portions (6b, 6c) running in a V-shaped manner and also the groove portions (6a, 6d) adjoining them and each merging into a circumferential groove.
A method for establishing a backup pseudo-wire intended to be used in the case of failure of at least one first pseudo-wire established between a first input terminal equipment and an output terminal equipment, run by a switching equipment, comprising a step of receiving a first establishment request message of the first pseudo-wire, the first pseudo-wire to be established comprising a first link between the first input terminal equipment and the switching equipment and a second link between the switching equipment and the output terminal equipment, characterized in that the first establishment-request message further comprises: - an identifier of said switching equipment, and - a request to establish the backup pseudo-wire comprising the second link and a third link to be established between the switching equipment and a second input terminal equipment, and on receipt of said first message, a step of transmitting a second message requesting establishment of the third link to the second input terminal equipment, and for a datastream being broadcasted over the first pseudo-wire, the method comprises, on receipt by the switching equipment of an item of information concerning failure relating to the first link, a step of switching the datastream to the third link. - an identifier of said switching equipment, and - a request to establish the backup pseudo-wire comprising the second link and a third link to be established between the switching equipment and a second input terminal equipment,
A hearing aid comprising: an electroacoustic transducer (1, 1', 1*); a signal processing circuitry (2, 2 AD, 2 DA), configured to receive from said electroacoustic transducer an electrical input signal or to provide said electroacoustic transducer (1', 1*) with an electrical output signal; a power supply means (4, 5) configured to provide power to said electroacoustic transducer (1, 1', 1*) and to said signal processing circuitry (2, 2 AD, 2 DA); characterized in that said hearing aid further comprises an electroosmotic pump (6, 6 o, 6 i) configured to transport liquid and/or vapor outside of said hearing aid, or away from a component thereof (1, 1', 1*, 8), wherein said electroosmotic pump comprises a porous intermediate layer and, on each side thereof, electrode elements (7p, 7n) which are connected to said power supply means (4, 5) so that transport of said liquid and/or vapor is induced by an electric field applied between said electrode elements (7p, 7n) across said electroosmotic pump. an electroacoustic transducer (1, 1', 1*); a signal processing circuitry (2, 2 AD, 2 DA), configured to receive from said electroacoustic transducer an electrical input signal or to provide said electroacoustic transducer (1', 1*) with an electrical output signal; a power supply means (4, 5) configured to provide power to said electroacoustic transducer (1, 1', 1*) and to said signal processing circuitry (2, 2 AD, 2 DA);
A dual pick-off vibratory flowmeter, comprising: a first flowtube including an upper mounting element and a lower mounting element and a second flowtube including an upper mounting element and a lower mounting element, with the first and second flowtubes (102A, 102B) configured to be vibrated substantially in opposition; a first pick-off sensor comprising first and second pick-off portions (108A, 108B) affixed to the first and second flowtubes (102A, 102B), with the first pick-off sensor being located at a first longitudinal location X along the first and second flowtubes (102A, 102B), with the first and second pick-off portions (108A, 108B) including mounting extensions (142A, 142B) that are adjustably affixed to the first and second flowtubes (102A, 102B) via the upper mounting elements (131A, 131B); and a second pick-off sensor comprising first and second pick-off portions (109A, 109B) affixed to the first and second flowtubes (102A, 102B), with the second pick-off sensor being located substantially at the first longitudinal location X and substantially spaced-apart from the first pick-off sensor, with the first and second pick-off portions (109A, 109B) including mounting extensions (143A, 143B) that are adjustably affixed to the first and second flowtubes (102A, 102B) via the lower mounting elements (132A, 132B). a first flowtube including an upper mounting element and a lower mounting element and a second flowtube including an upper mounting element and a lower mounting element, with the first and second flowtubes (102A, 102B) configured to be vibrated substantially in opposition; a first pick-off sensor comprising first and second pick-off portions (108A, 108B) affixed to the first and second flowtubes (102A, 102B), with the first pick-off sensor being located at a first longitudinal location X along the first and second flowtubes (102A, 102B), with the first and second pick-off portions (108A, 108B) including mounting extensions (142A, 142B) that are adjustably affixed to the first and second flowtubes (102A, 102B) via the upper mounting elements (131A, 131B); and a second pick-off sensor comprising first and second pick-off portions (109A, 109B) affixed to the first and second flowtubes (102A, 102B), with the second pick-off sensor being located substantially at the first longitudinal location X and substantially spaced-apart from the first pick-off sensor, with the first and second pick-off portions (109A, 109B) including mounting extensions (143A, 143B) that are adjustably affixed to the first and second flowtubes (102A, 102B) via the lower mounting elements (132A, 132B).
A high pressure delivery system for delivering a medicament, comprising: a first chamber for storing a supply of the medicament; a vent connected to the first chamber; a second chamber in fluid communication with said first chamber to receive a dose; a fluid connection path in fluid communication with said second chamber for delivering the medicament to a high pressure area; and a valving system in fluid communication with said first and second chambers (111, 121) and said fluid connection path; wherein said valving system allows the dose of the medicament to be transferred from said first chamber into said second chamber while air enters the first chamber via the vent, substantially preventing backflow of the dose into said first chamber and substantially preventing leakage through said fluid connection path, and said valving system allows the dose in said second chamber to be administered through said fluid connection path while substantially preventing the dose from flowing back into said first chamber and substantially preventing said first chamber from being subjected to the high pressures associated with administration of the dose, the valving system comprises a three-way valve (131, 231), and the fluid connection path is not in fluid communication with the first chamber. a first chamber for storing a supply of the medicament; a vent connected to the first chamber; a second chamber in fluid communication with said first chamber to receive a dose; a fluid connection path in fluid communication with said second chamber for delivering the medicament to a high pressure area; and a valving system in fluid communication with said first and second chambers (111, 121) and said fluid connection path; wherein said valving system allows the dose of the medicament to be transferred from said first chamber into said second chamber while air enters the first chamber via the vent, substantially preventing backflow of the dose into said first chamber and substantially preventing leakage through said fluid connection path, and said valving system allows the dose in said second chamber to be administered through said fluid connection path while substantially preventing the dose from flowing back into said first chamber and substantially preventing said first chamber from being subjected to the high pressures associated with administration of the dose, the valving system comprises a three-way valve (131, 231), and the fluid connection path is not in fluid communication with the first chamber.
A surface cleaning device (10, 510, 610, 710, 810), comprising: a base adapted for contacting a surface of a surrounding environment to be cleaned; a suction source; a suction nozzle assembly provided on the base and defining a suction nozzle in fluid communication with the suction source; a fluid delivery and recovery system, comprising: a fluid supply tank adapted to hold a supply of fluid; a fluid dispenser in fluid communication with the fluid supply tank; and a recovery tank (20, 920) in fluid communication with the suction nozzle assembly; a fluid level sensing assembly (98, 598, 698, 798, 898, 898, 998), comprising: at least one probe (114, 116, 118, 1162, 1164); and a controller communicatively coupled to the at least one probe (114, 116, 118, 1162, 1164) and configured to electronically control the at least one probe (114, 116, 118, 1162, 1164) and configured to detect a level of fluid in at least one of the fluid supply tank or the recovery tank to define a presence of liquid; characterized in that the at least one probe (114, 116, 118, 1162, 1164) is located on a bracket assembly (92a, 92b, 92c) that is contained within the recovery tank. a base adapted for contacting a surface of a surrounding environment to be cleaned; a suction source; a suction nozzle assembly provided on the base and defining a suction nozzle in fluid communication with the suction source; a fluid delivery and recovery system, comprising: a fluid supply tank adapted to hold a supply of fluid; a fluid dispenser in fluid communication with the fluid supply tank; and a recovery tank (20, 920) in fluid communication with the suction nozzle assembly; a fluid supply tank adapted to hold a supply of fluid; a fluid dispenser in fluid communication with the fluid supply tank; and a recovery tank (20, 920) in fluid communication with the suction nozzle assembly; a fluid level sensing assembly (98, 598, 698, 798, 898, 898, 998), comprising: at least one probe (114, 116, 118, 1162, 1164); and a controller communicatively coupled to the at least one probe (114, 116, 118, 1162, 1164) and configured to electronically control the at least one probe (114, 116, 118, 1162, 1164) and configured to detect a level of fluid in at least one of the fluid supply tank or the recovery tank to define a presence of liquid; at least one probe (114, 116, 118, 1162, 1164); and a controller communicatively coupled to the at least one probe (114, 116, 118, 1162, 1164) and configured to electronically control the at least one probe (114, 116, 118, 1162, 1164) and configured to detect a level of fluid in at least one of the fluid supply tank or the recovery tank to define a presence of liquid; characterized in that the at least one probe (114, 116, 118, 1162, 1164) is located on a bracket assembly (92a, 92b, 92c) that is contained within the recovery tank.
Device for the surface treatment of a substrate by dielectric barrier discharge that enables the generation of a cold filamentary plasma at atmospheric pressure, comprising a reaction chamber, in which are positioned means for supporting and/or moving the substrate and a dielectric barrier placed between at least two electrodes (3, 4) arranged in parallel on either side of the means for supporting and/or moving the substrate, of which one high voltage electrode and one earthed counter-electrode are characterised in that the counter-electrode has a width (l ce) and a length (L ce) that are respectively smaller than the width (l e) and the length (L e) of the electrode, and in that the counter-electrode is positioned so that it is enclosed in an orthogonal projection of the electrode on a plane containing the counter-electrode.
Apparatus for outputting a measurement signal that indicates a physical measured variable in a vehicle, comprising: - a first processor that is set up to take a first sensor signal as a basis for determining a first comparison signal for the physical measured variable, - a second processor that is set up to take a second sensor signal as a basis for determining a second comparison signal for the physical measured variable, and - a filter device that is set up to determine an error between the two comparison signals (18, 34) and to output said error to the first processor, - wherein the first processor is set up to determine the measurement signal on the basis of a correction of the first comparison signal with the error, wherein one of the sensor signals is a global satellite navigation signal, the other of the sensor signals is a driving dynamics signal and the physical measured variable is a locating signal that locates the vehicle in terms of its absolute position and its change of position, characterized in that the comparison signals are determined on separate processors. - a first processor that is set up to take a first sensor signal as a basis for determining a first comparison signal for the physical measured variable, - a second processor that is set up to take a second sensor signal as a basis for determining a second comparison signal for the physical measured variable, and - a filter device that is set up to determine an error between the two comparison signals (18, 34) and to output said error to the first processor, - wherein the first processor is set up to determine the measurement signal on the basis of a correction of the first comparison signal with the error,
A valve arranged to automatically shut off the flow of fluid into a production liner for extraction of oil and gas in the event of a gas break-through, whereby the valve comprises a valve seating containing at least one central inflow channel and one or more outflow channels (36,38) from the valve into said a production liner, characterised in that the valve is constructed with a curved design adapted to be equal to the shape of the outer diameter of a production liner and is thus placeable on the outside of said a production liner, and in that a shut off body having a surface is arranged in the valve, in the flowing path of the liquid flow, to cause a high velocity flow over the shut off body's surface against the valve seat, wherein the shut off body is adapted to seal against said valve seat dependant on the differential pressure being produced in the passing flow according to the Bernoulli-principle, wherein the shut off body is a rectangular plate or a disk.
A clearinghouse for integrating information related to released criminal offenders, the clearinghouse comprising: a computer system that receives geospatial location information related to released criminal offenders from multiple disparate systems, the geospatial location information including date and time information; wherein, upon determination that the geospatial location information were received in different formats, the computer system converts the geospatial location information to a homogenous data format such that data of the same type is presented in a uniform format, wherein the computer system additionally receives sentences from a criminal justice agency, and wherein the computer system compares said converted geospatial location information to the sentences to detect a violation of at least one of the sentences. a computer system that receives geospatial location information related to released criminal offenders from multiple disparate systems, the geospatial location information including date and time information; wherein, upon determination that the geospatial location information were received in different formats, the computer system converts the geospatial location information to a homogenous data format such that data of the same type is presented in a uniform format, wherein the computer system additionally receives sentences from a criminal justice agency, and wherein the computer system compares said converted geospatial location information to the sentences to detect a violation of at least one of the sentences.