mhurhangee/patent-ind-claim-en huggingface dataset:
A die-cutting machine comprising at least one unit designed as a contact unit and at least one unit designed as a shaping unit and at least one unit designed as a stripping unit and at least one unit designed as a blanking unit , wherein the die-cutting machine has at least one drive system with at least one drive , wherein the at least one drive is designed to drive at least one shaping tool of at least one shaping unit of the at least one shaping unit , wherein the at least one drive is designed to drive at least one stripping tool (402; 403) of at least one stripping unit of the at least one stripping unit and/or at least one blanking tool of at least one blanking unit of the at least one blanking unit via at least one transmission , wherein the at least one transmission is arranged within at least one housing , characterized in that the die-cutting machine has at least one central lubricating system, in that the at least one lubricating system is designed to guide at least one lubricant of at least one source of a lubricant and/or of a supply of lubricant for at least two units (200; 300; 400; 500) of the units (200; 300; 400; 500), that within the respective unit (200; 300; 400; 500) the at least one lubricant system is designed to guide lubricant to at least one lubrication point, in that the at least one lubricant system is designed to guide lubricant only to the at least one lubrication point within the respective unit (200; 300; 400; 500) outside of the at least one housing of the at least one transmission .
A fan blade comprising a body having a dovetail and an airfoil extending outwardly from said dovetail , said airfoil formed by a pair of skins spaced to form an internal core, and said skins defining a pressure side and a suction side, and extending from an inner end to an outer tip , characterised in that : said core receives a plurality of braided tubes , said tubes extending with at least a component in a radially outward direction, wherein said tubes taper to a point at an inner end.
Garden hose (GS), which is formed in multiple layers with an inner casing layer, which is surrounded by a fabric (GE), wherein the fabric is embedded in an intermediate layer (ZS) or is itself formed as such an intermediate layer, and in which a second casing layer (M22) is applied over the fabric (GE), in which a relief structure (RS) is formed in the outwardly facing outer surface, wherein the relief structure (RS) covers less than 30%, in particular less than 20%, of the outer surface of the casing layer (M22), and wherein the relief structure (RS) is formed in the surface of the casing layer (M22) facing radially outwards with respect to the longitudinal axis of the hose (GS), which has, in a direction parallel to the longitudinal direction, at least one radial recess or elevation relative to an averaged radius of the outer side of the casing layer (M22), characterized in that the relief structure (RS) consists of a material (M23) embedded in the outer side of the outer surface (SO).
A flexible coupling for transmitting torque between parts of a transmission shaft system, comprising: a tubular section which has been modified to form a living hinge section with reduced bending stiffness to allow flexion of the tubular section; wherein the tubular section is located between and connected to two end sections , and characterised in that a first of the end sections comprises a first cylindrical portion that is connected via a frustoconical portion to a first end of the tubular section; a second of the end sections comprises a second cylindrical portion that is connected via a frustoconical portion to a second, opposite, end of the tubular section; wherein the tubular section has a larger diameter than each of the first and second cylindrical portions; and in that the tubular section is of continuous-fibre-reinforced composite material. a tubular section which has been modified to form a living hinge section with reduced bending stiffness to allow flexion of the tubular section; wherein the tubular section is located between and connected to two end sections , and characterised in that a first of the end sections comprises a first cylindrical portion that is connected via a frustoconical portion to a first end of the tubular section; a second of the end sections comprises a second cylindrical portion that is connected via a frustoconical portion to a second, opposite, end of the tubular section; wherein the tubular section has a larger diameter than each of the first and second cylindrical portions; and in that the tubular section is of continuous-fibre-reinforced composite material.
Rail vehicle group, comprising a leading rail vehicle with at least one front region which is arranged at a trailing end of the leading rail vehicle , the shape of the front region being at least partially convex at least in the region of its roof at least in the longitudinal direction of the leading rail vehicle , and further comprising a trailing rail vehicle which has a roof-mounted pantograph, characterized by at least one wing which is arranged in the front region of the leading rail vehicle on the roof at least partially in the convex region in order to increase the flow speed on the roof-mounted pantograph of the trailing rail vehicle , a shape of the wing at least substantially following a shape of the front region .
A method for providing a normalized image, comprising the following steps: - receiving (REC) a non-normalized image comprising first pixels and non-normalized intensities by an interface , wherein the non-normalized image is a digital subtraction angiography, DSA, image, wherein each of the first pixels is characterized by one of the non-normalized intensities , - determining (DET) a subtraction histogram with a calculation unit , wherein the subtraction histogram maps a first intensity to the difference between the relative frequency of the first intensity and the relative frequency of a second intensity within the non-normalized intensities, wherein the first intensity is one of the non-normalized intensities and the second intensity is one of the non-normalized intensities , wherein the second intensity is the negative of the first intensity optionally up to a constant offset, - providing (PROV) a normalized image comprising second pixels and normalized intensities based on the non-normalized image and based on the subtraction histogram with the calculation unit , wherein each of the second pixels is characterized by one of the normalized intensities . - receiving (REC) a non-normalized image comprising first pixels and non-normalized intensities by an interface , wherein the non-normalized image is a digital subtraction angiography, DSA, image, wherein each of the first pixels is characterized by one of the non-normalized intensities , - determining (DET) a subtraction histogram with a calculation unit , wherein the subtraction histogram maps a first intensity to the difference between the relative frequency of the first intensity and the relative frequency of a second intensity within the non-normalized intensities, wherein the first intensity is one of the non-normalized intensities and the second intensity is one of the non-normalized intensities , wherein the second intensity is the negative of the first intensity optionally up to a constant offset, - providing (PROV) a normalized image comprising second pixels and normalized intensities based on the non-normalized image and based on the subtraction histogram with the calculation unit , wherein each of the second pixels is characterized by one of the normalized intensities .
A mudguard intended to be fastened inside a motor vehicle wheel arch, comprising a shell made of a thermoplastic material having a wall intended to lie opposite the tread of the wheel, the wall comprising at least one area provided with a plurality of holes , said area being intended to form a Helmholtz resonator with a portion of the body of the vehicle surrounding the shell at least partially, said portion having at least one cavity adjoining said area , the mudguard comprises a layer of an acoustically-absorbent material which is fastened on an inner face of the wall so as to cover the area at least partially and said mudguard is characterized in that a layer of a water-impermeable and air-permeable material is disposed between the inner face of the wall and the acoustically-absorbent material layer .
A flexible fluid transport pipe comprising: - a tubular sheath made of polymer defining a fluid circulation passage with a central axis (A-A') ; - a pressure vault , arranged around and outside the tubular sheath , the pressure vault comprising a short-pitch winding of at least one interlocked shaped wire (40; 40A; 40C; 40E), the shaped wire (40; 40A; 40C ; 40E) comprising a plurality of interlocked turns , each turn having a profile, in section in a median axial plane, defining at least one stud and, for the or each stud , a groove adjacent to the stud , the stud being capable of being interlocked in a groove of an adjacent turn of a shaped wire (40; 40A; 40C; 40E) of the pressure vault ; - at least one armor layer arranged outside the pressure vault , characterized in that at least one additional passage for gas circulation through the pressure vault from the inside of the pressure vault to the outside of the pressure vault is defined in the or each stud and/or in the bottom of the or each groove the additional passage allowing the flow of gas between the inside of the pressure vault and the outside of the pressure vault in addition to at least one clearance (J1, J2) between the stud of a turn and the bottom of the groove of the adjacent turn, or in the absence of clearance (J1, J2) between the stud of a turn and the bottom of the groove of the adjacent turn. - a tubular sheath made of polymer defining a fluid circulation passage with a central axis (A-A') ; - a pressure vault , arranged around and outside the tubular sheath , the pressure vault comprising a short-pitch winding of at least one interlocked shaped wire (40; 40A; 40C; 40E), the shaped wire (40; 40A; 40C ; 40E) comprising a plurality of interlocked turns , each turn having a profile, in section in a median axial plane, defining at least one stud and, for the or each stud , a groove adjacent to the stud , the stud being capable of being interlocked in a groove of an adjacent turn of a shaped wire (40; 40A; 40C; 40E) of the pressure vault ; - at least one armor layer arranged outside the pressure vault ,
A method of calculating a time difference, comprising: sampling a first ultrasonic signal to produce a first sampled signal; sampling a second ultrasonic signal to produce a second sampled signal; determining a first differential time of flight between the first sampled signal and the second sampled signal; determining a second differential time of flight, independently from the first differential time of flight, between the first sampled signal and the second sampled signal; and calculating the time difference in response to the first and second differential times of flight. sampling a first ultrasonic signal to produce a first sampled signal; sampling a second ultrasonic signal to produce a second sampled signal; determining a first differential time of flight between the first sampled signal and the second sampled signal; determining a second differential time of flight, independently from the first differential time of flight, between the first sampled signal and the second sampled signal; and calculating the time difference in response to the first and second differential times of flight.
An apparatus, comprising: at least one processor ; and at least one memory comprising computer program code, the at least one memory and computer program code configured, with the at least one processor , to cause the apparatus at least to receive an encrypted new routing identifier with an integrity signature from a security or access management entity, wherein the encrypted new routing identifier is received in a non-access stratum message after authentication of the apparatus is completed; check a validity of the integrity signature using a key; and if the integrity signature is valid, decipher and store the new routing identifier. at least one processor ; and at least one memory comprising computer program code, the at least one memory and computer program code configured, with the at least one processor , to cause the apparatus at least to receive an encrypted new routing identifier with an integrity signature from a security or access management entity, wherein the encrypted new routing identifier is received in a non-access stratum message after authentication of the apparatus is completed; check a validity of the integrity signature using a key; and if the integrity signature is valid, decipher and store the new routing identifier.
Respiratory protective mask , comprising: - a plastic shell to be placed on the face, this shell comprising a front part provided with a region for receiving an element for holding a filtering material , characterized in that the shell comprises a flexible rear part without attached seal, having a rear edge adapted to match the shape of the face, the rear part being produced with a wall thickness (e) of between 0.15 and 0.5 mm over at least part of its periphery. - a plastic shell to be placed on the face, this shell comprising a front part provided with a region for receiving an element for holding a filtering material ,
A test element unit for use in an array substrate comprising a thin-film transistor (TFT) and a pixel electrode and having a display region and a non-display region, the test element unit comprising a plurality of layers of test patterns, each layer of test patterns comprising at least one test block , at least one capacitor being formed between test blocks located in different layers, two electrodes of each capacitor being two test blocks located in different layers, respectively; wherein, the plurality of test blocks comprise a gate metal test block formed of a metal layer used for formation of a gate of the TFT, a source-drain metal test block formed of a metal layer used for formation of a source electrode of the TFT and a drain electrode of the TFT, and a pixel electrode metal test block formed of a pixel electrode layer used for formation of the pixel electrode, and the gate metal test block , the source-drain metal test block and the pixel electrode metal test block are located in different layers.
A thermosettable structural adhesive composition comprising (a) an epoxy compound; (b) a thermoplastic compound; (c) an epoxy curing agent; (d) non-spherical particles, wherein said thermosettable structural adhesive composition provides a cohesive failure mode in a T-peel test according to ASTM D1876; and wherein the non-spherical particles have a grain size according to EN ISO 8130-13:2010 in the range of from 30 μm to 200 μm. (a) an epoxy compound; (b) a thermoplastic compound; (c) an epoxy curing agent; (d) non-spherical particles, wherein said thermosettable structural adhesive composition provides a cohesive failure mode in a T-peel test according to ASTM D1876; and wherein the non-spherical particles have a grain size according to EN ISO 8130-13:2010 in the range of from 30 μm to 200 μm.
Communication device (DIS), comprising, in one and the same housing: - a radiofrequency communication module (MODR), comprising a processor, a memory operationally coupled to the processor, and a transceiver for transmitting and receiving radiofrequency signals, wherein the processor is configured so as to generate a digital signal from radiofrequency signals received by way of the transceiver, - an interface module (MODL) operationally coupled to the radiofrequency communication module (MODR) so as to: * receive the digital signal generated by the radiofrequency communication module (MODR), and configured so as to * modulate, on the basis of the digital signal, an electrical signal intended to supply power to at least one lamp (LE), for the purpose of producing a modulation of light emitted by the lamp (LE) on the basis of the digital signal received from the radiofrequency communication module (MODR) - a photoreceptor (PHD) linked to the interface module (MODL) so as to receive a modulated light signal (IR) and transmit, via the radiofrequency communication module (MODR), a radiofrequency signal corresponding to the received modulated light signal, and - at least one lamp connected to the interface module (MODL). - a radiofrequency communication module (MODR), comprising a processor, a memory operationally coupled to the processor, and a transceiver for transmitting and receiving radiofrequency signals, wherein the processor is configured so as to generate a digital signal from radiofrequency signals received by way of the transceiver, - an interface module (MODL) operationally coupled to the radiofrequency communication module (MODR) so as to: * receive the digital signal generated by the radiofrequency communication module (MODR), and configured so as to * modulate, on the basis of the digital signal, an electrical signal intended to supply power to at least one lamp (LE), for the purpose of producing a modulation of light emitted by the lamp (LE) on the basis of the digital signal received from the radiofrequency communication module (MODR) * receive the digital signal generated by the radiofrequency communication module (MODR), and configured so as to * modulate, on the basis of the digital signal, an electrical signal intended to supply power to at least one lamp (LE), for the purpose of producing a modulation of light emitted by the lamp (LE) on the basis of the digital signal received from the radiofrequency communication module (MODR) - a photoreceptor (PHD) linked to the interface module (MODL) so as to receive a modulated light signal (IR) and transmit, via the radiofrequency communication module (MODR), a radiofrequency signal corresponding to the received modulated light signal, and - at least one lamp connected to the interface module (MODL).
Diagnostic method for the detection of the manipulation of muscle growth in a domestic animal, comprising the steps of: a) providing a tissue or body fluid sample obtained from a domestic animal, b) quantifying the amount of anti-myostatin antibodies in the sample of step a), c) comparing the amount of the anti-myostatin antibodies measured in step b) to the amount of anti-myostatin antibodies present in at least one non-manipulated reference animal, wherein an increased amount of the anti-myostatin antibodies present in the sample relative to the at least one non-manipulated reference animal is indicative for the manipulation of muscle growth in a domestic animal, wherein the method further comprises the steps of: d) quantifying the amount of at least one additional myostatin pathway biomarker in the said sample, the said additional myostatin pathway biomarker being selected from the group consisting of myostatin propeptide, leptin, activin receptor IIB, members of the SMAD family of proteins, Alk type 1 co-receptor, Pax 3, MYOD1, MYOG, CDKN1A, CDK2 Myf-5, p-AKT, FOXO, MuRF1, FBXO32 and combinations of two or more thereof, e) comparing the amount of the at least one additional myostatin pathway biomarker measured in step d) to the amount of the said at least one additional myostatin pathway biomarker present in at least one non-manipulated reference animal, wherein an altered amount of the said additional myostatin pathway biomarker present in the sample relative to the at least one non-manipulated reference animal is indicative for the manipulation of muscle growth in a domestic animal. a) providing a tissue or body fluid sample obtained from a domestic animal, b) quantifying the amount of anti-myostatin antibodies in the sample of step a), c) comparing the amount of the anti-myostatin antibodies measured in step b) to the amount of anti-myostatin antibodies present in at least one non-manipulated reference animal, wherein an increased amount of the anti-myostatin antibodies present in the sample relative to the at least one non-manipulated reference animal is indicative for the manipulation of muscle growth in a domestic animal, wherein the method further comprises the steps of: d) quantifying the amount of at least one additional myostatin pathway biomarker in the said sample, the said additional myostatin pathway biomarker being selected from the group consisting of myostatin propeptide, leptin, activin receptor IIB, members of the SMAD family of proteins, Alk type 1 co-receptor, Pax 3, MYOD1, MYOG, CDKN1A, CDK2 Myf-5, p-AKT, FOXO, MuRF1, FBXO32 and combinations of two or more thereof, e) comparing the amount of the at least one additional myostatin pathway biomarker measured in step d) to the amount of the said at least one additional myostatin pathway biomarker present in at least one non-manipulated reference animal, wherein an altered amount of the said additional myostatin pathway biomarker present in the sample relative to the at least one non-manipulated reference animal is indicative for the manipulation of muscle growth in a domestic animal.
A half bearing (31, 32; 41, 42) for constituting a sliding bearing for supporting a crankshaft of an internal combustion engine, the half bearing having a semi-cylindrical shape, and having an inner surface forming a sliding surface , wherein the sliding surface of the half bearing comprises a plurality of recesses , each recess having a smooth recess surface, the recess surface being recessed from the sliding surface toward an outer diameter side of the half bearing, wherein the recess surface forms a convex curve toward the outer diameter side of the half bearing in a cross-sectional view in any direction perpendicular to the sliding surface of the half bearing, wherein the recess surface comprises a plurality of circumferential grooves , the circumferential grooves being recessed from the recess surface toward the outer diameter side of the half bearing, wherein the circumferential grooves extend along a circumferential direction (M) of the half bearing so that smooth surfaces and the circumferential grooves are alternately arranged on the recess surface, wherein the recesses are uniformly located throughout the sliding surface of the half bearing, wherein the circumferential grooves extend from a peripheral edge of the recess to an opposite peripheral edge of the recess , characterised in that : a cross section of the circumferential grooves is V-shaped.
A method performed by a central unit, CU, of a gNodeB, gNB, the gNB including the CU and at least one distributed unit, DU, the method comprising: receiving , from a DU of the gNB, an F1 interface establishment request message including a DU identity and cell configuration information; storing data included in the F1 interface establishment request message; identifying at least one cell based on the cell configuration information; transmitting , to the DU of the gNB, an F1 interface establishment response message including information on the at least one cell; and receiving , from the DU of the gNB, an initial transfer message through an F1 interface, the initial transfer message including a radio resource control, RRC, connection request message received on the at least one cell from a terminal. receiving , from a DU of the gNB, an F1 interface establishment request message including a DU identity and cell configuration information; storing data included in the F1 interface establishment request message; identifying at least one cell based on the cell configuration information; transmitting , to the DU of the gNB, an F1 interface establishment response message including information on the at least one cell; and receiving , from the DU of the gNB, an initial transfer message through an F1 interface, the initial transfer message including a radio resource control, RRC, connection request message received on the at least one cell from a terminal.