mhurhangee/ep-ind-claims huggingface dataset:
A connector-type socket comprising: - a body adapted to be connected via a front face to a complementary plug and comprising a plurality of insulation-displacement contacts oriented in the same direction; - a separate connection module comprising a plurality of slots each intended to receive one end of a strand of a cable comprising shielding, the module being arranged in such a way as to be inserted into the body so as to bring each strand against the matching insulation-displacement contact; the body comprises two discrete and parallel plates, each plate comprises a row of contacts, each row of contacts is arranged in a plane, the planes containing the rows being discrete and parallel therebetween so as to be able to connect all the strands of the cable in a single movement, the socket being characterized in that: the contacts of the plates being oriented in a direction perpendicular to the plates; the connection module comprising a separating wall (20.1, 20.2) of two pairs of slots, the socket further comprising a connecting element (30.1, 30.2) comprising an electrical contact zone (31, 32, 33, 34, 35) respectively with the separating wall (20.1, 20.2), the cable shielding, and the body. - a body adapted to be connected via a front face to a complementary plug and comprising a plurality of insulation-displacement contacts oriented in the same direction; - a separate connection module comprising a plurality of slots each intended to receive one end of a strand of a cable comprising shielding, the module being arranged in such a way as to be inserted into the body so as to bring each strand against the matching insulation-displacement contact; the body comprises two discrete and parallel plates, each plate comprises a row of contacts, each row of contacts is arranged in a plane, the planes containing the rows being discrete and parallel therebetween so as to be able to connect all the strands of the cable in a single movement, the socket being characterized in that: the contacts of the plates being oriented in a direction perpendicular to the plates; the connection module comprising a separating wall (20.1, 20.2) of two pairs of slots, the socket further comprising a connecting element (30.1, 30.2) comprising an electrical contact zone (31, 32, 33, 34, 35) respectively with the separating wall (20.1, 20.2), the cable shielding, and the body. the body comprises two discrete and parallel plates, each plate comprises a row of contacts, each row of contacts is arranged in a plane, the planes containing the rows being discrete and parallel therebetween so as to be able to connect all the strands of the cable in a single movement, the socket being characterized in that: the contacts of the plates being oriented in a direction perpendicular to the plates; the connection module comprising a separating wall (20.1, 20.2) of two pairs of slots, the socket further comprising a connecting element (30.1, 30.2) comprising an electrical contact zone (31, 32, 33, 34, 35) respectively with the separating wall (20.1, 20.2), the cable shielding, and the body.
Net, in particular a ball safety net, which in particular on its edges is firmly connected to a beading for insertion into a groove of a profile rail, wherein the beading is formed from an elastic material and has a base body with a base body cross-section which is rectangular in shape on a first end and a corresponding longitudinal median plane, characterised in that the beading has two lips (5, 6) on a second end with a gap between the lips for fastening the net, which lips have a longitudinal median plane which is formed at an angle of 30 to 110 degrees relative to the longitudinal median plane of the first end of the base body.
Inflatable airbag equipped with at least one divided into sectors main inflatable chamber with at least one air inlet (2.6), at least one air outlet (2.6), and an air pressure regulation valve (2.7), wherein the sectors of the main inflatable chamber are arranged by one or more transverse ribs (2.3) with openings (2.8) that connect an upper (2.1) and a lower base (2.4) of the main air chamber, respectively, with a height equal to the height of side parts (2.5) of the main inflatable chamber, the inflatable airbag being further equipped with a plurality of perpendicularly positioned inflatable shock absorbing air chambers, connected flexible or fixed at their base to the main inflatable chamber,, the inflatable airbag being further equipped with at least one protective cover positioned over the shock absorbing air chambers and fastened to the main inflatable chamber, characterized in that, the shock absorbing air chambers have a height of 70-95% of the height of the main inflatable chamber and each shock absorbing air chamber is respectively connected fixedly through a respective bottom side to a respective upper face side of a respective skirt (3.3) which discloses a centrally positioned air channel (3.1) with a diameter from 10 cm to 25 cm, wherein each skirt (3.3) is joined by a flexible or fixed fastening between its back and the surface of the main inflatable chamber, wherein a distance between each pair of the shock absorbing air chambers is substantially the same along their entire height when the shock absorbing air chambers are not being deformed, such distance being not less than 1cm and not more than 15 cm, and wherein the protective cover is fastened to the main inflatable chamber by an elastic connection and by movable or fixed side parts of the protective cover or, alternatively, by an elastic connection and by side skirts of the protective cover, wherein the side parts and the side skirts are respectively connected between themselves by respective angle connections (5.1, 6.1)) to which they are fastened.
Inflatable transfer mattress, comprising: a top panel; a bottom panel having a perimeter sealingly coupled to a perimeter of the top panel to define an internal volume therebetween, wherein the internal volume is configured to receive an air flow therein; and characterized by a first wedge pocket (30a, 30c) coupled to an outer surface of the top panel; a first inflatable wedge (16a to 16d) sized and configured to be inserted into the first wedge pocket (30a, 30c), wherein the first inflatable wedge (16a to 16d) is configured to be transitioned from a deflated state to an inflated state, and wherein the first inflatable wedge (16a to 16d) is configured to rotate a patient to a predetermined angle with respect to the top panel in the inflated state; and a first airflow path (31a, 31b) extending from a first valve (4a, 4b) to a first opening formed in the first inflatable wedge (16a to 16d), wherein the valve (4a, 4b) is formed integrally with the top panel, and wherein the first airflow path (31a, 31b) comprises a first enclosed path positioned within the internal volume and extending from the valve (4a, 4b) to a first port (32a, 32d) formed through the top panel. a top panel; a bottom panel having a perimeter sealingly coupled to a perimeter of the top panel to define an internal volume therebetween, wherein the internal volume is configured to receive an air flow therein; and characterized by a first wedge pocket (30a, 30c) coupled to an outer surface of the top panel; a first inflatable wedge (16a to 16d) sized and configured to be inserted into the first wedge pocket (30a, 30c), wherein the first inflatable wedge (16a to 16d) is configured to be transitioned from a deflated state to an inflated state, and wherein the first inflatable wedge (16a to 16d) is configured to rotate a patient to a predetermined angle with respect to the top panel in the inflated state; and a first airflow path (31a, 31b) extending from a first valve (4a, 4b) to a first opening formed in the first inflatable wedge (16a to 16d), wherein the valve (4a, 4b) is formed integrally with the top panel, and wherein the first airflow path (31a, 31b) comprises a first enclosed path positioned within the internal volume and extending from the valve (4a, 4b) to a first port (32a, 32d) formed through the top panel.
Magnetic core/shell polymer nanocapsule containing iron oxide nanoparticles and a chitosan derivative, characterized in that it consists of a liquid oil core in which magnetic iron oxide nanoparticles are suspended, preferably wüstite crystallites and crystallites of the magnetitemaghemite phase, preferably with a percentage ratio of 22:77 respectively, provided with an inner shell containing a cationic chitosan derivative and a negatively-charged outer shell containing an anionic chitosan derivative, the oil core containing a known hydrophobic active substance or dye.
A method for providing a channel response, h, of a channel of interest comprising the steps of: (a) Receiving a channel modified signal in response to a sensing signal, transmitted through said channel of interest; (b) Performing different first order channel estimations on the received channel modified signal to calculate first order channel estimates, ĥ, of the channel response, h, of said channel of interest without performing a matrix inversion; and (c) Combining the calculated first order channel estimates, ĥ, to calculate the channel response, h, of said channel of interest, wherein a linear combination of the first order channel estimates, ĥ, is calculated using weight factors, α, to provide the channel response, h, of said channel of interest. (a) Receiving a channel modified signal in response to a sensing signal, transmitted through said channel of interest; (b) Performing different first order channel estimations on the received channel modified signal to calculate first order channel estimates, ĥ, of the channel response, h, of said channel of interest without performing a matrix inversion; and (c) Combining the calculated first order channel estimates, ĥ, to calculate the channel response, h, of said channel of interest, wherein a linear combination of the first order channel estimates, ĥ, is calculated using weight factors, α, to provide the channel response, h, of said channel of interest.
Tubular or strip-shaped decorative or functional element for detachable connection by means of connection elements to a helmet shell or to a helmet, characterised in that the connecting elements are hooks which are rigidly connected to the decorative or functional element and are intended to be hooked into the helmet shell, or are nodes on the decorative or functional element which are intended to be hooked into the helmet shell.
A method of production of a drainage hole floor module in a floor structure of a building site, the method comprises the steps of: - providing a forming tool for manufacture of a plate member comprising a thermosetting polymer; - forming of said plate member in said forming tool into a flat spatial geometry having an extended lower surface and an extended upper sloping surface converging to an apex point; - in the same forming step permanently joining a drainage pipe rigidly to the thermosetting polymer, wherein an upper end of said drainage pipe is positioned at said apex point and said drainage pipe extends beyond or to said lower surface forming a lower end and wherein the drainage pipe comprises an anchoring element radially protruding into a through hole inner side; - transporting said plate member to the building site; - installation of said plate member to the floor structure;. - providing a forming tool for manufacture of a plate member comprising a thermosetting polymer; - forming of said plate member in said forming tool into a flat spatial geometry having an extended lower surface and an extended upper sloping surface converging to an apex point; - in the same forming step permanently joining a drainage pipe rigidly to the thermosetting polymer, wherein an upper end of said drainage pipe is positioned at said apex point and said drainage pipe extends beyond or to said lower surface forming a lower end and wherein the drainage pipe comprises an anchoring element radially protruding into a through hole inner side; - transporting said plate member to the building site; - installation of said plate member to the floor structure;.
Method for producing integrally bladed gas turbine rotors, in particular integrally bladed turbine rotors, moving blades being joined to a main rotor body with the interposition of an adapter, one adapter first being joined, at a corresponding attachment portion, to each moving blade, respectively, to be connected to the main rotor body, and then each moving blade being joined, via the adapter connected thereto, to a respectively corresponding attachment portion of the main rotor body, each adapter being connected to the attachment portion of the corresponding moving blade by means of friction welding, characterized in that each moving blade is connected, via the adapter connected thereto, to the corresponding attachment portion of the main rotor body, by means of inductive high-frequency pressure welding, at least join zones being subjected to heat treatment after the moving blades have been connected to the main rotor body.
A device for active modification of thermal radiation, the device comprising: (i) a substrate; (ii) one or more polymeric permeable membranes comprising an ionic liquid electrolyte; (iii) one or more electrodes comprising carbon nanotubes deposited onto the surface of at least one of the one or more polymeric membranes; and (iv) a protective encapsulation layer. (i) a substrate; (ii) one or more polymeric permeable membranes comprising an ionic liquid electrolyte; (iii) one or more electrodes comprising carbon nanotubes deposited onto the surface of at least one of the one or more polymeric membranes; and (iv) a protective encapsulation layer.
Method for performing floating-point arithmetic in an automation system during the runtime of a program in real time, in which from at least two items of starting data (x, y), these being floating-point numbers, a first result (z) is established in a first calculation in floating-point notation using standard floating-point arithmetic, and the at least two items of starting data (x, y) in floating-point notation are each converted into a suitable floating-point interval notation (A = <a, a rad >, B = <b, b rad >), and from the at least two items of data that have been converted into floating-point interval notation, a second calculation which is analogous to the first calculation is executed, in particular concurrently with the first calculation, and said second calculation establishes a result interval (C = <c, c rad >), wherein the first result (z) of the first calculation is checked for erroneous calculation on the basis of the result interval (C = <c, c rad >) of the second calculation (c, c rad).
Preparation of impact modified thermoplastic polymer composition by mixing A) a thermoplastic polymer and B) a core-shell impact modifier, wherein the core-shell impact modifier comprises a polymeric core and at least two polymeric layers, each layer with a different polymer composition, wherein at least one polymeric layer comprises a polymer that is a gradient polymer and wherein the core-shell impact modifier is made by a process comprising following steps a) synthesis of a core-shell copolymer by emulsion polymerization ab) the pH of the core-shell polymer emulsion is controlled and adjusted at a pH between 4 and 8 after the synthesis step b) coagulation of the core shell polymer at a pH between 4 and 8 by addition of an aqueous electrolyte solution A) a thermoplastic polymer and B) a core-shell impact modifier, wherein the core-shell impact modifier comprises a polymeric core and at least two polymeric layers, each layer with a different polymer composition, wherein at least one polymeric layer comprises a polymer that is a gradient polymer and a) synthesis of a core-shell copolymer by emulsion polymerization ab) the pH of the core-shell polymer emulsion is controlled and adjusted at a pH between 4 and 8 after the synthesis step b) coagulation of the core shell polymer at a pH between 4 and 8 by addition of an aqueous electrolyte solution
A lightweight shield for aircraft protection against threat of high energy impacts, which comprises, a structural layer having a first side (2.1) and a second side (2.2), wherein the first side (2.1) is intended for receiving the impact, a ballistic material layer for absorbing high energy impacts, having a first side (3.1) and a second side (3.2), wherein the first side (3.1) of the ballistic material layer is faced to the second side (2.2) of structural layer and joined to said structural layer by means of a progressively detachable interface and, the second side (3.2) of the ballistic material layer is a free surface, wherein the structural layer is a carbon fiber laminate comprising a resin matrix; characterized in that the progressively detachable interface is a patterned layer comprising a plurality of discrete detachable joint points; said patterned layer being selected from the group consisting of a peel ply layer, a non-stick release film layer, and combinations thereof; and in that the ballistic material layer comprises a small amount of resin diffused from the structural layer during a curing or resin injection or infusion process of this structural layer, through the plurality of discrete detachable joint points of the interface, said plurality of discrete detachable joint points and the resin matrix being thermoplastic resin. a structural layer having a first side (2.1) and a second side (2.2), wherein the first side (2.1) is intended for receiving the impact, a ballistic material layer for absorbing high energy impacts, having a first side (3.1) and a second side (3.2), wherein the first side (3.1) of the ballistic material layer is faced to the second side (2.2) of structural layer and joined to said structural layer by means of a progressively detachable interface and, the second side (3.2) of the ballistic material layer is a free surface, wherein the structural layer is a carbon fiber laminate comprising a resin matrix; characterized in that the progressively detachable interface is a patterned layer comprising a plurality of discrete detachable joint points; said patterned layer being selected from the group consisting of a peel ply layer, a non-stick release film layer, and combinations thereof; and in that the ballistic material layer comprises a small amount of resin diffused from the structural layer during a curing or resin injection or infusion process of this structural layer, through the plurality of discrete detachable joint points of the interface, said plurality of discrete detachable joint points and the resin matrix being thermoplastic resin.
Bi-rotating machining head with two controlled axes (C; A), comprising: - a first control unit of a first axis; - a second control unit of a second axis; - an electrospindle unit having a motor for rotating a tool holder, said electrospindle unit being carried by said second control unit with the possibility of movement with at least one degree of freedom with respect to said second control unit; characterized by further comprising - abutting means carried by said electrospindle unit and arranged for abutting on a workpiece so as to maintain a desired relative position between the workpiece and a tool carried by said tool holder, wherein a possible irregularity of the workpiece can be compensated by said movement of said electrospindle unit with respect to said second control unit to maintain the contact of said abutting means against the workpiece. - a first control unit of a first axis; - a second control unit of a second axis; - an electrospindle unit having a motor for rotating a tool holder, said electrospindle unit being carried by said second control unit with the possibility of movement with at least one degree of freedom with respect to said second control unit; - abutting means carried by said electrospindle unit and arranged for abutting on a workpiece so as to maintain a desired relative position between the workpiece and a tool carried by said tool holder, wherein a possible irregularity of the workpiece can be compensated by said movement of said electrospindle unit with respect to said second control unit to maintain the contact of said abutting means against the workpiece.
A database recovery system, comprising: a processor coupled to a memory, the processor configured to execute computer-executable instructions stored in the memory that when executed cause the processor to perform the following actions: determining a state of one or more transactions identified in a transaction log associated with a database, wherein the database supports versioning of user data; redoing the one or more transactions sequentially as specified by the transaction log starting from the beginning of a last successful checkpoint to the end of the transaction log; marking one or more uncommitted transactions of the one or more transactions as aborted; identifying a data element associated with a transaction identifier marked as aborted; reverting the data element to a prior committed version; and applying a transaction lock on the transaction identifier while the data element is reverted to the prior committed version. determining a state of one or more transactions identified in a transaction log associated with a database, wherein the database supports versioning of user data; redoing the one or more transactions sequentially as specified by the transaction log starting from the beginning of a last successful checkpoint to the end of the transaction log; marking one or more uncommitted transactions of the one or more transactions as aborted; identifying a data element associated with a transaction identifier marked as aborted; reverting the data element to a prior committed version; and applying a transaction lock on the transaction identifier while the data element is reverted to the prior committed version.
Brake control system for a motor vehicle comprising a brake pedal, a pneumatic brake booster which comprises a front chamber and a rear chamber which are separated by a booster piston, the said booster supplying an amplified braking command dependent on the pressure difference between the two said chambers, a brake master cylinder receiving the amplified braking commands from the brake booster, characterized in that it comprises a simulator not mechanically coupled to the piston of the brake booster the said simulator receiving at least one braking command from the brake pedal and in return establishing or controlling a pressure difference between the front chamber and the rear chamber of the brake booster so as to control the movement of the booster piston, and in that the brake booster does not have a piston equipped with a three-way valve secured to the booster piston.
A method for producing a multilayered tube, comprising: stretching at least one polymeric material which comprises at least one crystallizable biodegradable polymeric material and has a first dimension, wherein the stretching is performed in a manner that increases the first dimension and that results in a controlled level of molecular orientation; and forming the multilayered tube using the at least one stretched polymeric material and at least one adhesive polymeric material, wherein the multilayered tube has a molecular orientation profile that is substantially consistent throughout a wall of the multilayered tube. stretching at least one polymeric material which comprises at least one crystallizable biodegradable polymeric material and has a first dimension, wherein the stretching is performed in a manner that increases the first dimension and that results in a controlled level of molecular orientation; and forming the multilayered tube using the at least one stretched polymeric material and at least one adhesive polymeric material, wherein the multilayered tube has a molecular orientation profile that is substantially consistent throughout a wall of the multilayered tube.