mhurhangee/ep-ind-claims huggingface dataset:
A system for the static and seismic consolidation, thermal insulation and air conditioning of a structure, comprising: one or more panels; one or more fixing elements, structured to allow the fixing of the panels to the structure, maintaining a gap; an exoskeleton, comprising a reinforcement and a cast, located inside the gap; anchoring means, arranged to allow the fixing to the structure; characterized in that an air conditioning device is placed inside the gap between said one or more panels and the structure. one or more panels; one or more fixing elements, structured to allow the fixing of the panels to the structure, maintaining a gap; an exoskeleton, comprising a reinforcement and a cast, located inside the gap; anchoring means, arranged to allow the fixing to the structure; characterized in that an air conditioning device is placed inside the gap between said one or more panels and the structure.
A method for quantitating a vitamin D analyte in a sample, the vitamin D analyte comprising one or more of vitamin D2, vitamin D3, a metabolite of vitamin D2, and a metabolite of vitamin D3, the method comprising: treating a vitamin D analyte with a dienophile-containing one-step tagging reagent to form a labeled Diels-Alder adduct; and analyzing the labeled adduct using mass spectrometry, characterized in that the one-step tagging reagent comprises any one of: the compounds having the following structure: wherein and n is from 1 to 20. treating a vitamin D analyte with a dienophile-containing one-step tagging reagent to form a labeled Diels-Alder adduct; and analyzing the labeled adduct using mass spectrometry, characterized in that the one-step tagging reagent comprises any one of: the compounds having the following structure: wherein and n is from 1 to 20. the compounds having the following structure: wherein and n is from 1 to 20.
A medical device delivery system comprising: a tubular sheath, having a length, mounted about and containing a medical device; wherein said tubular sheath includes at least one pleat oriented along at least a portion of the length, wherein each pleat comprises two folds that cause the sheath material to double back on itself. a tubular sheath, having a length, mounted about and containing a medical device; wherein said tubular sheath includes at least one pleat oriented along at least a portion of the length, wherein each pleat comprises two folds that cause the sheath material to double back on itself.
Method for coating the surface of a pin, in which - a coating is applied at least to one part of the surface, in which coating thermally expandable particles are contained, - a partial surface region of the coating is covered with a transfer film having a carrier layer and having a transfer layer facing towards the coating and comprising a thermoplastic polymer that softens at the expansion temperature of the particles and at least one colourant, and is heated at least to the expansion temperature of the particles with the aid of a heat supply passing through the transfer film, whereby the partial surface region emerges from the coating as a raised structure (4, 4a) due to the expansion of the particles and one part of the transfer layer is transferred to the raised structure. - a coating is applied at least to one part of the surface, in which coating thermally expandable particles are contained, - a partial surface region of the coating is covered with a transfer film having a carrier layer and having a transfer layer facing towards the coating and comprising a thermoplastic polymer that softens at the expansion temperature of the particles and at least one colourant, and is heated at least to the expansion temperature of the particles with the aid of a heat supply passing through the transfer film, whereby the partial surface region emerges from the coating as a raised structure (4, 4a) due to the expansion of the particles and one part of the transfer layer is transferred to the raised structure.
A method for mounting a loudspeaker carrier in a vehicle, comprising: providing a loudspeaker carrier; providing an expandable material; arranging the expandable material between the loudspeaker carrier and a mounting site of bodywork of the vehicle; activating the expandable material such that the material expands, forming a foam structure and causes the loudspeaker carrier to be secured to the bodywork, characterized by activating the expandable material by subjecting the loudspeaker carrier, expandable material and vehicle bodywork to an electrocoat bake process. providing a loudspeaker carrier; providing an expandable material; arranging the expandable material between the loudspeaker carrier and a mounting site of bodywork of the vehicle; activating the expandable material such that the material expands, forming a foam structure and causes the loudspeaker carrier to be secured to the bodywork, characterized by activating the expandable material by subjecting the loudspeaker carrier, expandable material and vehicle bodywork to an electrocoat bake process.
A method for routing inter-autonomous system label-switched paths, carried out by a network device, the method comprising: receiving, by the network device within a first autonomous system, AS, inter-AS traffic engineering, TE, metric values for one or more inter-AS links that indicate route preferences for routes between the first AS and a second AS; storing the inter-AS TE metric values in a traffic engineering database, TED, of the network device; sending, by the network device and to a centralized controller device coupled to the first AS and the second AS, contents of the TED including the inter-AS TE metric values; receiving, by the network device and from the centralized controller device, path information for an inter-AS label switched path, LSP, across the first AS and the second AS computed by the centralized controller device based on the contents of the TED, wherein the inter-AS LSP comprises a first portion through the first AS based on a first set of intra-AS TE metric values for the first AS, a second portion between the first AS and the second AS that includes a preferred one of the one or more inter-AS links as indicated by the inter-AS TE metric values, and a third portion through the second AS based on a second set of intra-AS TE metric values for the second AS; and establishing, by the network device, at least the second portion of the inter-AS LSP using the preferred one of the one or more inter-AS links according to the path information. receiving, by the network device within a first autonomous system, AS, inter-AS traffic engineering, TE, metric values for one or more inter-AS links that indicate route preferences for routes between the first AS and a second AS; storing the inter-AS TE metric values in a traffic engineering database, TED, of the network device; sending, by the network device and to a centralized controller device coupled to the first AS and the second AS, contents of the TED including the inter-AS TE metric values; receiving, by the network device and from the centralized controller device, path information for an inter-AS label switched path, LSP, across the first AS and the second AS computed by the centralized controller device based on the contents of the TED, wherein the inter-AS LSP comprises a first portion through the first AS based on a first set of intra-AS TE metric values for the first AS, a second portion between the first AS and the second AS that includes a preferred one of the one or more inter-AS links as indicated by the inter-AS TE metric values, and a third portion through the second AS based on a second set of intra-AS TE metric values for the second AS; and establishing, by the network device, at least the second portion of the inter-AS LSP using the preferred one of the one or more inter-AS links according to the path information.
A servicing system (100, 200) for servicing a target object disposed in a target object cryostat, the servicing system comprising: one or more refrigerators (1, 2, 3, 5, 11) for cooling-down the target object to a cryogenic temperature, each refrigerator comprising at least a compressor and an expander (5, 11); one or more heaters (8, 15) for warming-up the target object from the cryogenic temperature; a fan and a fan circuit, the fan circulating gas through the fan circuit; a refrigerator cryostat (4, 9) housing the expanders and the fan in a vacuum; a plurality of heat exchangers (7, 14) for transferring heat from the heater to the gas in the fan circuit during warm-up of the target object and for transferring heat from the target object to the gas in the fan circuit during cool-down of the target object; a controller and a plurality of sensors (41, 42, 43), the plurality of sensors for measuring a temperature and a pressure in the fan circuit, the controller responsive to the plurality of sensors controlling at least a speed of the fan, a speed of the expanders, and a power of the heaters; a removable supply transfer line for bringing gas from the fan circuit to the target object cryostat; a removable return transfer line for returning gas from the target object to the fan circuit; the transfer lines being interchangeably connected to the target object cryostat; a pressure relief valve for relieving excess pressure in the fan circuit; and a vent valve that can be actuated to open to one of atmospheric pressure and a gas recovery system. one or more refrigerators (1, 2, 3, 5, 11) for cooling-down the target object to a cryogenic temperature, each refrigerator comprising at least a compressor and an expander (5, 11); one or more heaters (8, 15) for warming-up the target object from the cryogenic temperature; a fan and a fan circuit, the fan circulating gas through the fan circuit; a refrigerator cryostat (4, 9) housing the expanders and the fan in a vacuum; a plurality of heat exchangers (7, 14) for transferring heat from the heater to the gas in the fan circuit during warm-up of the target object and for transferring heat from the target object to the gas in the fan circuit during cool-down of the target object; a controller and a plurality of sensors (41, 42, 43), the plurality of sensors for measuring a temperature and a pressure in the fan circuit, the controller responsive to the plurality of sensors controlling at least a speed of the fan, a speed of the expanders, and a power of the heaters; a removable supply transfer line for bringing gas from the fan circuit to the target object cryostat; a removable return transfer line for returning gas from the target object to the fan circuit; the transfer lines being interchangeably connected to the target object cryostat; a pressure relief valve for relieving excess pressure in the fan circuit; and a vent valve that can be actuated to open to one of atmospheric pressure and a gas recovery system.
Device for cleaning a bodily orifice, in particular an auditory canal, which device comprises a housing that is open on a proximal side and that is intended to hold a liquid medium, wherein a housing bottom comprises an impulse tappet on a distal side of the housing, characterized in that an opening for receiving the impulse tappet is located on the distal side of the housing, and in that an elastic, replaceable cover is located on a proximal side of the opening.
Method for manufacturing a ceramic filter element, in particular a diesel particulate filter, the girth area of the filter element being provided with structural elements during manufacturing and the method comprising the following steps a. Manufacturing of a wound filter made of one or several layers of a papery material, e.g. filter paper, b. Introducing this wound filter into a support featuring the negative of the structural elements so that the structures are predefined on the outer wall of the wound filter, c. Soaking the wound filter with ceramic slurry so that the slurry can be displaced by the negative structures of the support at certain areas, d. Removing the support e. Sintering the soaked wound filter. a. Manufacturing of a wound filter made of one or several layers of a papery material, e.g. filter paper, b. Introducing this wound filter into a support featuring the negative of the structural elements so that the structures are predefined on the outer wall of the wound filter, c. Soaking the wound filter with ceramic slurry so that the slurry can be displaced by the negative structures of the support at certain areas, d. Removing the support e. Sintering the soaked wound filter.
A cryptography module comprising: a key store having a plurality of storage locations for storing a private key as k key fragments that include k-1 key fragments and a remainder key fragment; wherein the k-1 key fragments are generated as random key fragments and the remainder key fragment is generated based on the k-1 key fragments; and at least one crypto-processing segment, coupled to the key store, operating based on the k key fragments for processing a message in accordance with elliptic curve digital signature algorithm (ECDSA) to produce a signed message. a key store having a plurality of storage locations for storing a private key as k key fragments that include k-1 key fragments and a remainder key fragment; wherein the k-1 key fragments are generated as random key fragments and the remainder key fragment is generated based on the k-1 key fragments; and at least one crypto-processing segment, coupled to the key store, operating based on the k key fragments for processing a message in accordance with elliptic curve digital signature algorithm (ECDSA) to produce a signed message.
Method for a trailer vehicle which can be coupled to a towing vehicle and comprises an electric drive, which method is for controlling the electric drive and comprises the steps of: - receiving a current accelerator pedal position from a towing vehicle by means of a trailer brake control unit of the trailer vehicle, - generating (104,106,108,112,116) a control signal for the electric drive by means of the trailer brake control unit depending on the received current accelerator pedal position and - controlling the electric drive by means of the generated control signal, characterized in that the accelerator pedal position is received via an ISO 11992-2 CAN bus, specifically in message EBS 11, and the control signal is output to a vehicle brake control unit of the towing vehicle via the ISO 11992-2 CAN bus, specifically in message 21 and/or 23, as an absolute value in message 23 and as a relative value in message 21, and a request signal for a vehicle control unit is generated in the vehicle brake control unit depending on the control signal. - receiving a current accelerator pedal position from a towing vehicle by means of a trailer brake control unit of the trailer vehicle, - generating (104,106,108,112,116) a control signal for the electric drive by means of the trailer brake control unit depending on the received current accelerator pedal position and - controlling the electric drive by means of the generated control signal, the accelerator pedal position is received via an ISO 11992-2 CAN bus, specifically in message EBS 11, and the control signal is output to a vehicle brake control unit of the towing vehicle via the ISO 11992-2 CAN bus, specifically in message 21 and/or 23, as an absolute value in message 23 and as a relative value in message 21, and a request signal for a vehicle control unit is generated in the vehicle brake control unit depending on the control signal.
Method for determining the actual start of injection of a fuel injection valve having a piezo direct drive of a nozzle needle, having the steps: - carrying out a test injection with such a short actuation period that a start of shut-off occurs so early that the nozzle needle does not reach the opening end position, - determining the closing time of the nozzle needle by measuring and evaluating an electrical variable of the piezo direct drive, and - calculating back from the closing time to the actual start of injection via the start of shut-off. - carrying out a test injection with such a short actuation period that a start of shut-off occurs so early that the nozzle needle does not reach the opening end position, - determining the closing time of the nozzle needle by measuring and evaluating an electrical variable of the piezo direct drive, and - calculating back from the closing time to the actual start of injection via the start of shut-off.
A binding moiety for Carbonic Anhydrase IX (CAIX), wherein the binding moiety comprises: wherein R is selected from the group consisting of: and wherein R' is H or C1-C7 alkyl, C1-C7 alkenyl, or C1-C7 heteroalkyl, optionally substituted with one, two or three substituents, and preferably R' is methyl.
Hydraulic fluid reservoir, in particular a brake fluid reservoir, closed by a cap comprising a lower element and an upper element, the upper element having the form of a cover of which an internally threaded inner bearing surface is intended to be screwed onto a matching thread on a neck of the reservoir, the upper element internally receiving the lower element, which has the form of a disc with a diameter corresponding to the inside diameter of the upper element, the lower element having within its thickness a first coaxial circular outer groove, termed a venting groove, which communicates via at least one orifice with the reservoir and which opens into an upper face of the said lower element, and a second coaxial circular inner groove, termed a venting groove, which opens into the upper face of the said lower element, which communicates, on the one hand, with the first outer groove and, on the other hand, with a radial channel, which passes through the first circular outer groove and which opens into the periphery of the lower element by way of a venting orifice to allow the reservoir to be vented, characterized in that: - the lower element is indexed with respect to the upper element, - the thread on the neck of the reservoir occupies a defined angular position on the said neck of the said reservoir to ensure a unique angular position of the upper element when it is tightened by screwing onto the neck of the reservoir,, in order to ensure a defined position of the venting orifice with respect to the neck of the reservoir. - the lower element is indexed with respect to the upper element, - the thread on the neck of the reservoir occupies a defined angular position on the said neck of the said reservoir to ensure a unique angular position of the upper element when it is tightened by screwing onto the neck of the reservoir,,
A prosthetic lenticular capsule (10, 110) comprising: an anterior surface (14, 114); a posterior surface (16, 116) comprising a refractive surface (19, 119) having an optical power, wherein the posterior surface (16, 116) is configured to be in a same location as a posterior surface of a removed cataract; the prosthetic lenticular capsule (10, 110) configured to contain an intraocular device comprising haptics; an anterior opening (18, 118); and an exterior contour extending radially from the anterior opening (18, 118) along a visual axis of an eye; wherein the prosthetic lenticular capsule (10, 110) possesses sufficient elasticity to resume a pre-folded shape once positioned in the eye, and wherein the prosthetic lenticular capsule (10, 110) is configured to maintain an effective lens position of the intraocular device contained in the prosthetic lenticular capsule (10, 110). an anterior surface (14, 114); a posterior surface (16, 116) comprising a refractive surface (19, 119) having an optical power, wherein the posterior surface (16, 116) is configured to be in a same location as a posterior surface of a removed cataract; the prosthetic lenticular capsule (10, 110) configured to contain an intraocular device comprising haptics; an anterior opening (18, 118); and an exterior contour extending radially from the anterior opening (18, 118) along a visual axis of an eye; wherein the prosthetic lenticular capsule (10, 110) possesses sufficient elasticity to resume a pre-folded shape once positioned in the eye, and wherein the prosthetic lenticular capsule (10, 110) is configured to maintain an effective lens position of the intraocular device contained in the prosthetic lenticular capsule (10, 110).
A martensitic stainless steel material consisting of, in mass%, C: 0.030% or less, Si: 1.00% or less, Mn: 1.00% or less, P: 0.030% or less, S: 0.0050% or less, Cu: 0.01 to 3.50%, Cr: 10.00 to 14.00%, Ni: 4.50 to 7.50%, Mo: 1.00 to 4.00%, Ti: 0.050 to 0.300%, V: 0.01 to 1.00%, Al: 0.001 to 0.100%, Co: 0.010 to 0.500%, Ca: 0.0005 to 0.0050%, Sn: 0.0005 to 0.0500%, N: 0.0010 to 0.0500%, O: 0.050% or less, W: 0 to 0.50%, Nb: 0 to 0.500%, As: 0 to 0.0100%, Sb: 0 to 0.0100%, and the balance: Fe and impurities, wherein: a yield strength is 758 MPa or more, as measured according to the method described in the description; and within a range of contents of elements and the yield strength of the martensitic stainless steel material, the contents of elements and the yield strength satisfy Formula; 0.15 ≤ Sn + As + Sb / Cu + Ni / YS ≤ 1.00 where, in Formula, a content of a corresponding element in percent by mass is substituted for each symbol of an element, and a yield strength in MPa is substituted for YS, and, if a corresponding element is not contained, "0" is substituted for the symbol of the relevant element. C: 0.030% or less, Si: 1.00% or less, Mn: 1.00% or less, P: 0.030% or less, S: 0.0050% or less, Cu: 0.01 to 3.50%, Cr: 10.00 to 14.00%, Ni: 4.50 to 7.50%, Mo: 1.00 to 4.00%, Ti: 0.050 to 0.300%, V: 0.01 to 1.00%, Al: 0.001 to 0.100%, Co: 0.010 to 0.500%, Ca: 0.0005 to 0.0050%, Sn: 0.0005 to 0.0500%, N: 0.0010 to 0.0500%, O: 0.050% or less, W: 0 to 0.50%, Nb: 0 to 0.500%, As: 0 to 0.0100%, Sb: 0 to 0.0100%, and the balance: Fe and impurities, wherein: a yield strength is 758 MPa or more, as measured according to the method described in the description; and within a range of contents of elements and the yield strength of the martensitic stainless steel material, the contents of elements and the yield strength satisfy Formula; 0.15 ≤ Sn + As + Sb / Cu + Ni / YS ≤ 1.00 where, in Formula, a content of a corresponding element in percent by mass is substituted for each symbol of an element, and a yield strength in MPa is substituted for YS, and, if a corresponding element is not contained, "0" is substituted for the symbol of the relevant element. a yield strength is 758 MPa or more, as measured according to the method described in the description; and within a range of contents of elements and the yield strength of the martensitic stainless steel material, the contents of elements and the yield strength satisfy Formula; 0.15 ≤ Sn + As + Sb / Cu + Ni / YS ≤ 1.00 where, in Formula, a content of a corresponding element in percent by mass is substituted for each symbol of an element, and a yield strength in MPa is substituted for YS, and, if a corresponding element is not contained, "0" is substituted for the symbol of the relevant element.
Garment for use at high temperatures, such as, for example, a fire-fighting suit, comprising an outer fabric of heat-resistant material which is provided over its surface with a ceramic coating, characterised in that the ceramic coating covers the fabric to an extent of 20%, in particular 30%, to 40%, in particular about 35%, the coating partially covering the fabric being applied at 20 to 30 g/m 2.