mhurhangee/ep-ind-claims huggingface dataset:
A boarding bridge for accessing aircraft and ships, which boarding bridge comprises a round structure to which the cab is attached with rotational capabilities, having stopping means to halt the rotation of the cab, and with a operating sensor of the drive mechanism of the cab, wherein the braking means are activated by the operating sensor, when the latter detects the breakdown or failure of the drive system of the cab, characterized in that: the braking means are made up of a cab rotation blocking mechanism, formed by a linearly movable lance, which is attached to the frame that supports the round structure, and of a coupling part for said lance, that is integral to and rotates with the cab; the lance is aligned with the coupling part and to it are associated retention means, which are capable of keeping said lance in an inactive position, separated from the coupling part, and pushing means, in charge of propelling said lance toward an active position, in which said lance fits into the coupling part, blocking it; the retention means can be released by means of the operating sensor when said sensor detects a failure or breakdown of the cab drive system, so as to allow the lance to move up to its active position actuated by the pushing means. the braking means are made up of a cab rotation blocking mechanism, formed by a linearly movable lance, which is attached to the frame that supports the round structure, and of a coupling part for said lance, that is integral to and rotates with the cab; the lance is aligned with the coupling part and to it are associated retention means, which are capable of keeping said lance in an inactive position, separated from the coupling part, and pushing means, in charge of propelling said lance toward an active position, in which said lance fits into the coupling part, blocking it; the retention means can be released by means of the operating sensor when said sensor detects a failure or breakdown of the cab drive system, so as to allow the lance to move up to its active position actuated by the pushing means.
A fiber structure for reinforcing a composite material part, said structure being woven as a single piece by multilayer weaving between a first plurality of layers of yarns (C 1 -C 10) and a second plurality of layers of yarns (T 1 -T 10), the fiber structure including at least one portion of decreasing thickness, wherein in the portion of decreasing thickness, the fiber structure includes at its surface: • one or more yarn withdrawal parts in surface continuity in each of which yarns (F C3) are interrupted that belong to a layer of yarns (C 3) of the first plurality of layers of yarns underlying the layer of yarns (C 2) of the first plurality of layers of yarns situated at the surface of the structure; and • one or more yarn withdrawal parts in surface discontinuity in each of which yarns (F C1) are interrupted in the layer of yarns (C 1) of the first plurality of layers of yarns situated in the surface of the structure, each interrupted yarn (C 1) being replaced in the surface of the structure by a yarn (F C2) of a layer of yarns (C 2) underlying the first plurality of layers of yarns; and the yarns of the layers of the second plurality of layers of yarns (T 1 -T 10) situated at the surface of the fiber structure are continuous over at least the entire portion of decreasing thickness, the structure being characterized in that the external faces (206a, 206b) of the fiber structure are made using a satin type weave while the internal part of the fiber structure is made using an interlock type weave, and the yarn (F C2) of a layer of yarns underlying the first plurality of layers of yarns is weaved after yarn withdrawal part in surface discontinuity using the satin type weave. • one or more yarn withdrawal parts in surface continuity in each of which yarns (F C3) are interrupted that belong to a layer of yarns (C 3) of the first plurality of layers of yarns underlying the layer of yarns (C 2) of the first plurality of layers of yarns situated at the surface of the structure; and • one or more yarn withdrawal parts in surface discontinuity in each of which yarns (F C1) are interrupted in the layer of yarns (C 1) of the first plurality of layers of yarns situated in the surface of the structure, each interrupted yarn (C 1) being replaced in the surface of the structure by a yarn (F C2) of a layer of yarns (C 2) underlying the first plurality of layers of yarns; and the yarns of the layers of the second plurality of layers of yarns (T 1 -T 10) situated at the surface of the fiber structure are continuous over at least the entire portion of decreasing thickness, the structure being characterized in that the external faces (206a, 206b) of the fiber structure are made using a satin type weave while the internal part of the fiber structure is made using an interlock type weave, and the yarn (F C2) of a layer of yarns underlying the first plurality of layers of yarns is weaved after yarn withdrawal part in surface discontinuity using the satin type weave.
Sound transducer arrangement (100; 100a), having a carrier device on which a plurality of sound transducer elements are fastened, having a housing, which has an interior space, for receiving the carrier device, wherein an, in particular circumferential, gap is formed between the inner cross section, which is formed by an inner wall, of the housing and an outer circumference of the carrier device, wherein the carrier device, on the side which faces away from the sound transducer elements, is at least indirectly overlapped by a sealing compound, and wherein a sealing element is provided, which is designed to prevent ingress of the sealing compound, via the gap, into the interior space of the housing on that side of the carrier device which faces away from the sealing compound, characterized in that the sealing element is designed as a housing edge which projects into the interior space and is integrally formed on the inner wall of the housing and is arranged with an overlap with the carrier device in regions so as to form an axial stop for the carrier device.
A method for drilling and completing a gravel packed well comprising: drilling a wellbore through a subterranean formation with a drilling fluid, wherein the wellbore comprises an open-hole interval; characterised by, conditioning the drilling fluid by removing solid particles larger than approximately one-third the slot opening size of any sand screen utilized in the wellbore and/or larger than one-sixth the diameter of the gravel pack particle size, and thereafter: running a gravel packing assembly and sand screens to depth in the wellbore in the conditioned drilling fluid; gravel packing an interval of the wellbore with a carrier fluid, wherein after the gravel pack assembly and sand screens are run to depth, the open-hole interval is displaced with a volume of the carrier fluid not laden with gravel pack proppants. drilling a wellbore through a subterranean formation with a drilling fluid, wherein the wellbore comprises an open-hole interval; characterised by, conditioning the drilling fluid by removing solid particles larger than approximately one-third the slot opening size of any sand screen utilized in the wellbore and/or larger than one-sixth the diameter of the gravel pack particle size, and thereafter: running a gravel packing assembly and sand screens to depth in the wellbore in the conditioned drilling fluid; gravel packing an interval of the wellbore with a carrier fluid, wherein after the gravel pack assembly and sand screens are run to depth, the open-hole interval is displaced with a volume of the carrier fluid not laden with gravel pack proppants. running a gravel packing assembly and sand screens to depth in the wellbore in the conditioned drilling fluid; gravel packing an interval of the wellbore with a carrier fluid, wherein after the gravel pack assembly and sand screens are run to depth, the open-hole interval is displaced with a volume of the carrier fluid not laden with gravel pack proppants.
A footbed configured for supporting a foot and including a void or voids formed in the footbed, beneath all of each of the following regions (i) and (ii) of the footbed, wherein the or each void has a minimum size of 0.6 cm 2 and configured so that the tissues of the foot deform into the void or voids, characterized in that: (i) is a first region located on the footbed to underlie a lateral part of an anterio-medial ground contact portion of a calcaneus of the foot when supported by the footbed and situated in the anterior aspect of the calcaneus, having a medial border along a longitudinal midline of the heel and extending laterally of the midline to a point which is substantially aligned with the lateral aspect of the 4 th phalange; and (ii) is a second region located on the footbed to underlie an anterio-lateral ground contact portion of the calcaneus on the inferior surface of the anterio-lateral calcaneal process, in an anterio-lateral region of the calcaneus; wherein the void or voids of the first region and the second region do not cross medially of the longitudinal midline of the heel and with no other balancing voids medial of the midline of the heel except for voids located on the footbed to underlie the medial process of the tuber calcanei of the foot. (i) is a first region located on the footbed to underlie a lateral part of an anterio-medial ground contact portion of a calcaneus of the foot when supported by the footbed and situated in the anterior aspect of the calcaneus, having a medial border along a longitudinal midline of the heel and extending laterally of the midline to a point which is substantially aligned with the lateral aspect of the 4 th phalange; and (ii) is a second region located on the footbed to underlie an anterio-lateral ground contact portion of the calcaneus on the inferior surface of the anterio-lateral calcaneal process, in an anterio-lateral region of the calcaneus;
An electrical connector assembly comprising: a housing having a front end and a rear end, and including housing channels extending axially from the front end to the rear end for holding wire assemblies; and a stabilizer having a front end and a rear end, the stabilizer including supports extending from the front end, the supports having support channels along a longitudinal axis of the stabilizer, the stabilizer being coupled to the rear end of the housing so that the support channels align with the housing channels to accept corresponding wire assemblies therein, wherein the stabilizer includes tabs positioned outward of the supports, gaps being defined between the tabs and supports, the rear end of the housing being positioned in the gaps; characterized by the tabs being positioned radially outward of the supports; a front retaining feature holding the stabilizer to the housing, the front retaining feature pressing the tabs towards the housing to secure the stabilizer to the housing; and a rear retaining feature holding the wire assemblies to the stabilizer.
A method for producing a steel sheet comprising the following steps: - feeding a slab which composition comprises by weight: 0.6 ≤ C ≤ 1.3 %, 15.0 ≤ Mn ≤ 35 %, 8.5 ≤ Al ≤ 10 %, Si ≤ 2.40 % S ≤ 0.03 %, P ≤ 0.1 %, N ≤ 0.1 %, possibly one or more optional elements chosen among Ni, Cr, Cu in an respective amount of up to 4.0%, up to 3.0% and below 0.1% and possibly one or more elements chosen among B, Ta, Zr, Nb, V, Ti, Mo, and W in a cumulated amount of up to 2.0%, the remainder of the composition making up of iron and inevitable impurities resulting from the elaboration, - reheating such slab at a temperature above 1000°C and hot rolling it with a final rolling temperature of at least 800°C, - coiling the hot rolled steel sheet at a temperature between 350 and 450°C, - cold-rolling such hot rolled steel sheet at a reduction comprised between 30 and 80%, - annealing such cold rolled sheet by heating it up to an annealing temperature comprised between 700 and 1000°C, holding it at such temperature during less than 5 minutes and cooling it at a rate of at least 30°C/s. - feeding a slab which composition comprises by weight: 0.6 ≤ C ≤ 1.3 %, 15.0 ≤ Mn ≤ 35 %, 8.5 ≤ Al ≤ 10 %, Si ≤ 2.40 % S ≤ 0.03 %, P ≤ 0.1 %, N ≤ 0.1 %, possibly one or more optional elements chosen among Ni, Cr, Cu in an respective amount of up to 4.0%, up to 3.0% and below 0.1% and possibly one or more elements chosen among B, Ta, Zr, Nb, V, Ti, Mo, and W in a cumulated amount of up to 2.0%, the remainder of the composition making up of iron and inevitable impurities resulting from the elaboration, possibly one or more optional elements chosen among Ni, Cr, Cu in an respective amount of up to 4.0%, up to 3.0% and below 0.1% and possibly one or more elements chosen among B, Ta, Zr, Nb, V, Ti, Mo, and W in a cumulated amount of up to 2.0%, the remainder of the composition making up of iron and inevitable impurities resulting from the elaboration, - reheating such slab at a temperature above 1000°C and hot rolling it with a final rolling temperature of at least 800°C, - coiling the hot rolled steel sheet at a temperature between 350 and 450°C, - cold-rolling such hot rolled steel sheet at a reduction comprised between 30 and 80%, - annealing such cold rolled sheet by heating it up to an annealing temperature comprised between 700 and 1000°C, holding it at such temperature during less than 5 minutes and cooling it at a rate of at least 30°C/s.
An electromagnetic circuit breaker comprising a main case, a pair of contacts (2, 3) enclosed by said main case, a circuit breaker assembly to move one of the contacts (2, 3) between a closed position and an open position an electromagnetic main assembly for actuating said circuit breaker assembly upon the occurrence of predetermined electrical conditions, and an auxiliary switch responsive to movements of said circuit breaker assembly for indicating whether said contacts (2, 3) are open or closed, wherein the auxiliary switch has switch terminals (24, 25, 26), characterized in, that a control assembly is provided for actuating said circuit breaker assembly upon an external electrical signal, wherein said control assembly has control terminals (27, 28) and that a switch case is provided carrying said switch terminals (24, 25, 26) and said control terminals (27, 28) and accommodating said auxiliary switch.
The use of dextran sulfate for reducing or blocking Factor VIII-cleaving activities of certain protease(s) originated from CHO cell culture media and for increasing homogeneity of Factor VIII molecules produced in a process for the production of Factor VIII in CHO cells adapted to serum-free media which is supplemented with dextran sulfate, wherein the average molecular weight of said dextran sulfate is 20 to 5,000 kDa.
An in situ implantation accessory of an autonomous intracardiac capsule comprising a cylindrical tubular body provided at its distal end with an anchoring member adapted to penetrate into a tissue of a wall of a cavity of the heart, the implantation accessory comprising: - a remotely steerable catheter with an inner lumen, extended at its distal end by a tip, the tip comprising a base to which the catheter connects to and a cylindrical portion defining an interior volume suitable for housing the capsule; and - a sub-catheter housed within the lumen of the remotely steerable catheter, the sub-catheter being moveable in translation and rotation relative to the remotely steerable catheter, wherein the sub-catheter and the capsule are telescopically deployable with respect to the catheter between i) a retracted position wherein the capsule and the anchoring member are housed inside the tip, and ii) an extended position wherein the capsule is outside of the tip and is carried by a distal end of the sub-catheter, and the distal end of the sub-catheter and a proximal region of the capsule are provided with disconnectable means of attachment (20, 36) in mutual translation and bending, the implantation accessory being characterized in that the tip has, between the base and the cylindrical portion, a flexible portion (58; 158; 258) forming an articulation between the base and the cylindrical portion providing an elastic deformability in bending and in compression. - a remotely steerable catheter with an inner lumen, extended at its distal end by a tip, the tip comprising a base to which the catheter connects to and a cylindrical portion defining an interior volume suitable for housing the capsule; and - a sub-catheter housed within the lumen of the remotely steerable catheter, the sub-catheter being moveable in translation and rotation relative to the remotely steerable catheter,
Use of a fixing mortar for embedding anchoring means in mortar in holes or crevices, in which the fixing mortar and an anchoring means are introduced into a hole or crevice and the fixing mortar is caused to cure, wherein the fixing mortar is a two-component or multi-component fixing mortar, based on a free-radical-hardening unsaturated reactive resin which includes one or more silanes having absolute molecular weights of 2000 or less that carry no or at least one amino, sec-amino, mercapto, epoxy, isocyanato, alkenyl, (meth)acryloyl and/or anhydrido group(s) and include at least one Si-bonded hydrolysable group and which may or may not have reactive groups capable of participating in the polymerisation with a synthetic resin based on free-radical-hardening unsaturated reactive resins but do in any case have Si-bonded hydrolysable groups, and, physically separate therefrom, a hardener.
Pressure-sensitive adhesive compositions containing 5% to 50% by weight of copolymers of propylene with ethylene and/or with olefins selected from the group of the 1-olefins having 4 to 20 carbon atoms, where the copolymers have been prepared with the aid of metallocene catalysts and are characterized by a) a flow point, measured to ASTM D97, of < 50°C, b) a viscosity at 170°C in the range from 20 to 3000 mPa.s, measured with a rotary viscometer to DIN 53019, c) a density in the range from 0.84 to 0.90 g/cm 3, measured at 23°C to ISO 1183, d) a glass transition temperature of < -35°C, measured by the DSC method to DIN EN ISO 11357-2:2014. a) a flow point, measured to ASTM D97, of < 50°C, b) a viscosity at 170°C in the range from 20 to 3000 mPa.s, measured with a rotary viscometer to DIN 53019, c) a density in the range from 0.84 to 0.90 g/cm 3, measured at 23°C to ISO 1183, d) a glass transition temperature of < -35°C, measured by the DSC method to DIN EN ISO 11357-2:2014.
An electronic communication method comprising: providing a first communication device having an application stored thereon; providing a second communication device; using the second communication device, determining a presence of the first communication device; based on the step of determining the presence of the first communication device, automatically sending a signal from the second communication device to the first communication device; characterized by upon receiving the signal from the second communication device, causing the first communication device to send meeting information including the location of the first communication device and/or identification of the second communication device directly to a cloud service, which meeting information allows the cloud service to send the second communication device a request to join the electronic communication; using the cloud service, connecting the first communication device to an electronic communication; using the cloud service, sending the second communication device a request to join the electronic communication using the meeting information; and using the cloud service, connecting the second communication device to the electronic communication. providing a first communication device having an application stored thereon; providing a second communication device; using the second communication device, determining a presence of the first communication device; based on the step of determining the presence of the first communication device, automatically sending a signal from the second communication device to the first communication device; characterized by upon receiving the signal from the second communication device, causing the first communication device to send meeting information including the location of the first communication device and/or identification of the second communication device directly to a cloud service, which meeting information allows the cloud service to send the second communication device a request to join the electronic communication; using the cloud service, connecting the first communication device to an electronic communication; using the cloud service, sending the second communication device a request to join the electronic communication using the meeting information; and using the cloud service, connecting the second communication device to the electronic communication.
A cathode comprising a cathode layer for all-solid-state batteries, wherein the cathode layer contains cathode active material particles and solid electrolyte particles; wherein at least one of the cathode active material particles and the solid electrolyte particles contain a phosphorus element which is not oxidized; wherein a P-S bond is present between the phosphorus element and a sulfur element; wherein the moisture content of the cathode active material particles is less than 402 ppm, measured with a coulometric Karl Fischer titrator at 200°C as defined in the description; wherein, in a photoelectron spectrum by X-ray photoelectron spectroscopy measurement of the cathode layer, a P peak intensity ratio (A/B), which is derived from the phosphorus element, of a signal intensity A at a binding energy of 131.6 eV to a signal intensity B at a binding energy of 133.1 eV, is larger than 0.58; wherein the cathode active material particles include LiCoO 2, LiNi x Co 1-x O 2 (0<x<1), LiNi 1/3 Co 1/3 M 1/3 O 2, LiMnO 2, an element-substituted Li-Mn spinel, a lithium titanate, a lithium metal phosphate, a transition metal oxide, TiS 2, LiCoN, Si, SiO 2, Li 2 SiO 3, Li 4 SiO 4, a lithium alloy, or a lithium storage intermetallic compound; and wherein the solid electrolyte particles are particles composed of a sulfide-based solid electrolyte, preferably selected from LiI-Li 2 S-P 2 S 5, LiI-Li 2 O-Li 2 S-P 2 S 5, LiI-Li 2 S-P 2 O 5, LiI-Li 3 PO 4 -P 2 S 5, Li 2 S-P 2 S 5, and Li 3 PS 4. wherein the cathode layer contains cathode active material particles and solid electrolyte particles; wherein at least one of the cathode active material particles and the solid electrolyte particles contain a phosphorus element which is not oxidized; wherein a P-S bond is present between the phosphorus element and a sulfur element; wherein the moisture content of the cathode active material particles is less than 402 ppm, measured with a coulometric Karl Fischer titrator at 200°C as defined in the description; wherein, in a photoelectron spectrum by X-ray photoelectron spectroscopy measurement of the cathode layer, a P peak intensity ratio (A/B), which is derived from the phosphorus element, of a signal intensity A at a binding energy of 131.6 eV to a signal intensity B at a binding energy of 133.1 eV, is larger than 0.58; wherein the cathode active material particles include LiCoO 2, LiNi x Co 1-x O 2 (0<x<1), LiNi 1/3 Co 1/3 M 1/3 O 2, LiMnO 2, an element-substituted Li-Mn spinel, a lithium titanate, a lithium metal phosphate, a transition metal oxide, TiS 2, LiCoN, Si, SiO 2, Li 2 SiO 3, Li 4 SiO 4, a lithium alloy, or a lithium storage intermetallic compound; and wherein the solid electrolyte particles are particles composed of a sulfide-based solid electrolyte, preferably selected from LiI-Li 2 S-P 2 S 5, LiI-Li 2 O-Li 2 S-P 2 S 5, LiI-Li 2 S-P 2 O 5, LiI-Li 3 PO 4 -P 2 S 5, Li 2 S-P 2 S 5, and Li 3 PS 4.