mhurhangee/ep-ind-claims huggingface dataset:
A method (10; 200) of forming an article of footwear, the method comprising: providing (50; 75; 220) one or more sheets (400, 400A, 400B) of an ultraviolet radiation curable material; shaping (15; 240) the one or more sheets (400, 400A, 400B) of the UV radiation curable material such that it resembles a pre-determined shape; placing (20; 250) the shaped UV radiation curable material (700A; 700B) in direct contact with a surface of a textile, wherein the textile is an upper for the article of footwear, a strobel for the article of footwear, or a combination of both the upper and the strobel for the article of footwear; using heat or pressure or both, adhering (30; 270) the shaped UV radiation curable material to the surface of the textile, wherein the UV radiation cured material bonded to the textile is an outsole of the article of footwear; and curing at least a portion of the shaped UV radiation curable material adhered to the surface of the textile by exposing the shaped UV radiation curable material to ultraviolet radiation, thereby forming the article, which comprises UV radiation cured material bonded to the surface of the textile; wherein the method further comprises, prior to the curing, contouring (90; 260) the shaped UV radiation curable material (700A; 700B) or contouring the adhered UV radiation curable material, or both. providing (50; 75; 220) one or more sheets (400, 400A, 400B) of an ultraviolet radiation curable material; shaping (15; 240) the one or more sheets (400, 400A, 400B) of the UV radiation curable material such that it resembles a pre-determined shape; placing (20; 250) the shaped UV radiation curable material (700A; 700B) in direct contact with a surface of a textile, wherein the textile is an upper for the article of footwear, a strobel for the article of footwear, or a combination of both the upper and the strobel for the article of footwear; using heat or pressure or both, adhering (30; 270) the shaped UV radiation curable material to the surface of the textile, wherein the UV radiation cured material bonded to the textile is an outsole of the article of footwear; and curing at least a portion of the shaped UV radiation curable material adhered to the surface of the textile by exposing the shaped UV radiation curable material to ultraviolet radiation, thereby forming the article, which comprises UV radiation cured material bonded to the surface of the textile; wherein the method further comprises, prior to the curing, contouring (90; 260) the shaped UV radiation curable material (700A; 700B) or contouring the adhered UV radiation curable material, or both.
Dry transformer coil comprising at least two hollow-cylindrical, interleaved and radially spaced-apart windings (12, 14, 42, 44, 72, 74), wherein axially (38, 64) running cooling channels (30, 32, 34, 46, 48, 50, 88, 90, 92) are formed in the hollow-cylindrical intermediate space, which is formed by the spacing, by means of corresponding wall elements (18, 20, 22), the said cooling channels being arranged next to one another in at least three radially adjacent cooling channel planes (24, 26, 28), wherein a constriction element (36, 52, 54, 76, 78, 80) for constricting the cooling channel cross section is arranged in at least one of the cooling channels which is located in a cooling channel plane which is situated neither radially on the inside nor radially on the outside, characterized in that a constriction element for constricting the cooling channel cross section is arranged in one cooling channel (30, 34, 46, 50, 88, 92) of the radially inner or radially outer cooling channel plane, and in that the said constriction element is produced from several modules with different coefficients of thermal expansion and also is designed and arranged in such a way that the constriction of the cross section of the cooling channel (30, 34, 46, 50, 88, 92) is reduced as the temperature increases.
A measuring device for measuring an inside shape of a hollow measuring object, comprising: a light-sending part configured to send ring-shaped light in a first direction which is a depth direction of the hollow shape; a conversion part configured to convert a direction of the light into a direction approximately orthogonal to the first direction; a detection part configured to detect the light reflected inside the measuring object, the direction of which is converted by the conversion part; a light receiving optical system (106, 107, 110) configured to form an inside image of the measuring object; and a shape measurement part (112, 115) configured to measure the inside shape of the measuring object by obtaining a shift of an inner surface of the measuring object from a predetermined reference position according to a detection result of the detection part, wherein the predetermined reference position is in a conjugate relationship with the detection part. a light-sending part configured to send ring-shaped light in a first direction which is a depth direction of the hollow shape; a conversion part configured to convert a direction of the light into a direction approximately orthogonal to the first direction; a detection part configured to detect the light reflected inside the measuring object, the direction of which is converted by the conversion part; a light receiving optical system (106, 107, 110) configured to form an inside image of the measuring object; and a shape measurement part (112, 115) configured to measure the inside shape of the measuring object by obtaining a shift of an inner surface of the measuring object from a predetermined reference position according to a detection result of the detection part, wherein the predetermined reference position is in a conjugate relationship with the detection part.
A removable flexible jacket (240, 250, 260) for use in a printing press having a transfer cylinder for transferring a freshly printed substrate, comprising: a beaded surface layer, a woven fabric sheet, characterized by a graphic (242, 252, 262) encapsulated between the beaded surface layer and the woven fabric sheet the graphic (242, 252, 262) defining a plurality of numbered areas, and the plurality of numbered areas being visible through the beaded surface layer. a beaded surface layer, a woven fabric sheet, characterized by a graphic (242, 252, 262) encapsulated between the beaded surface layer and the woven fabric sheet the graphic (242, 252, 262) defining a plurality of numbered areas, and the plurality of numbered areas being visible through the beaded surface layer.
A coffee cherry processing method, comprising the steps of: adding water to coffee cherries or to any of pulp or green, unroasted coffee beans obtained from the coffee cherries to form a suspension; wet grinding said suspension in multiple steps to an average particle size of 100 μm or less; and subjecting said suspension to one or more separation and/or processing steps comprising at least the separation of the water phase to obtain at least one coffee cherry extract selected from coffee cherry aroma, coffee cherry oil, coffee cherry powder, coffee cherry juice, coffee pulp aroma, coffee pulp powder, coffee pulp juice, coffee aroma and green or roasted coffee powder. adding water to coffee cherries or to any of pulp or green, unroasted coffee beans obtained from the coffee cherries to form a suspension; wet grinding said suspension in multiple steps to an average particle size of 100 μm or less; and subjecting said suspension to one or more separation and/or processing steps comprising at least the separation of the water phase to obtain at least one coffee cherry extract selected from coffee cherry aroma, coffee cherry oil, coffee cherry powder, coffee cherry juice, coffee pulp aroma, coffee pulp powder, coffee pulp juice, coffee aroma and green or roasted coffee powder.
Electronic method for checking the correct operation of braking devices on a test stand, said test stand being suitable for testing industrial screwdrivers, said method comprising the following steps: a) detecting the idle torque of a predetermined brake ( T curren t) of said braking devices, b) checking that such a measured value of the idle torque is not less than a reference value ( T ref) by a certain predetermined percentage (Δ max), c) performing a tightening operation with the screwdriver on such a brake, d) checking that the number of tightening operations carried out by an operator and the number of revolutions carried out by the shaft on such a brake are below an alarm threshold, e) detecting a predetermined amount of data samples of braking torque in a predetermined time, f) extracting the minimum value ( T min), the maximum value ( T max) of the samples and calculating the average value, g) based on such minimum, average and maximum values, checking whether the variance of the values is below a maximum allowed variation (Δ max), h) checking whether the difference in braking samples torque values of contiguous pairs of samples is less than a reference value established for such a brake, i) checking that none of the detected torque samples values exceeds a configured alarm threshold. a) detecting the idle torque of a predetermined brake ( T curren t) of said braking devices, b) checking that such a measured value of the idle torque is not less than a reference value ( T ref) by a certain predetermined percentage (Δ max), c) performing a tightening operation with the screwdriver on such a brake, d) checking that the number of tightening operations carried out by an operator and the number of revolutions carried out by the shaft on such a brake are below an alarm threshold, e) detecting a predetermined amount of data samples of braking torque in a predetermined time, f) extracting the minimum value ( T min), the maximum value ( T max) of the samples and calculating the average value, g) based on such minimum, average and maximum values, checking whether the variance of the values is below a maximum allowed variation (Δ max), h) checking whether the difference in braking samples torque values of contiguous pairs of samples is less than a reference value established for such a brake, i) checking that none of the detected torque samples values exceeds a configured alarm threshold.
Process for the production of a rubber mixture, characterized in that the process comprises at least the following steps: a) addition of at least one diene rubber into a mixing device and b) addition of at least one expandable graphite and c) mixing of at least one diene rubber with at least one expandable graphite and d) heating to more than 150°C and e) cooling of the diene rubber/expandable graphite mixture to less than 90°C and f) mixing of the cooled diene rubber/expandable graphite mixture with other additives. a) addition of at least one diene rubber into a mixing device and b) addition of at least one expandable graphite and c) mixing of at least one diene rubber with at least one expandable graphite and d) heating to more than 150°C and e) cooling of the diene rubber/expandable graphite mixture to less than 90°C and f) mixing of the cooled diene rubber/expandable graphite mixture with other additives.
A method for operating a hearing device, comprising a receiver and an active vent, the method comprising: - upon request to switch the active vent into a different state, estimating a transfer function (H, H rec → mic) from the receiver to obtain a first transfer function ( Ĥ a), - subsequently switching the active vent, - subsequently estimating a transfer function (H, H rec → mic) from the receiver to obtain a second transfer function ( Ĥ b), - comparing the first transfer function ( Ĥ a) to the second transfer function ( Ĥ b) to obtain a divergence measure, - concluding that the active vent has actually been switched into the different state if the divergence measure exceeds a threshold ( D diff), characterized in that, if the divergence measure D ( H a, H b) is smaller than a second threshold ( D same), it is concluded that: - the state of the active vent has remained the same, and/or - the active vent is blocked or dirty. - upon request to switch the active vent into a different state, estimating a transfer function (H, H rec → mic) from the receiver to obtain a first transfer function ( Ĥ a), - subsequently switching the active vent, - subsequently estimating a transfer function (H, H rec → mic) from the receiver to obtain a second transfer function ( Ĥ b), - comparing the first transfer function ( Ĥ a) to the second transfer function ( Ĥ b) to obtain a divergence measure, - concluding that the active vent has actually been switched into the different state if the divergence measure exceeds a threshold ( D diff), - the state of the active vent has remained the same, and/or - the active vent is blocked or dirty.
A marking body, formed for marking tumour cells in tissue, comprising a self-expanding structure of a shape-memory metal, wherein the shape-memory metal forms a tubular structure that has at least two elongated openings along its length that extend no further than from a head section to a foot section of the tubular structure, wherein - the tubular structure is present compressed in an application condition and remaining strikes of shape-memory metal protrude between two adjacent elongated openings each, and - the tubular structure is present stretched in a non-application condition, wherein the marking body has anchoring means, characterised in that at least one strip has at least one anchoring means along the circumferential direction and/or along its length, and wherein the anchoring means is formed by a tab that is provided by one or several cuts or recesses that is/are introduced into the strip wherein the tab has a root via which it is connected to the strip radially movably, and wherein the root of each of the tabs is - continually adjacent to a head section or foot section or - offset against the head section or foot section in longitudinal direction. - the tubular structure is present compressed in an application condition and remaining strikes of shape-memory metal protrude between two adjacent elongated openings each, and - the tubular structure is present stretched in a non-application condition, - continually adjacent to a head section or foot section or - offset against the head section or foot section in longitudinal direction.
A method of starting up a thermoreactor arranged in an exhaust gas flow of an internal combustion engine, wherein the thermoreactor has at least two thermal storage masses (5, 6) which successively have a flow therethrough and wherein the combustion gas is ignited by spark ignition in at least one cylinder of the internal combustion engine and the exhaust gas resulting from the combustion of the combustion gas is fed at least partially to the thermoreactor as an exhaust gas flow, wherein the exhaust gas is alternately fed for a switching time firstly to the one thermal storage mass and then flows through the other thermal storage mass and vice-versa and wherein there is provided at least one external heat source (10, 11) for heating the thermoreactor, characterised in that the switching time is reduced for more rapidly heating up the thermoreactor.
A method for selecting a human subject with castration resistant prostate cancer (CrPC) for a combination therapy comprising a selective dipeptidyl peptidase inhibitor and a PD-1 axis antagonist, wherein the PD-1 axis antagonist is selected from the group consisting of PD-1 antagonist, PD-L1 antagonist, and PD-L2 antagonist, said method comprising: (a) determining the amplification and/or expression level of one or more genes selected from the group consisting of DPP-8 and DPP-9, and of one or more genes selected from the group consisting of programmed death ligand-1 (PD-L1) and CD274, in a biological sample obtained from the subject; and (b) selecting the subject as a suitable candidate for the said therapy if based on an assessment that the amplification and/or expression level of the one or more genes selected from the group consisting of DPP-8 and DPP-9, and of the one or more genes selected from the group consisting of programmed death ligand-1 (PD-L1) and CD274, exceeds a predetermined threshold level. (a) determining the amplification and/or expression level of one or more genes selected from the group consisting of DPP-8 and DPP-9, and of one or more genes selected from the group consisting of programmed death ligand-1 (PD-L1) and CD274, in a biological sample obtained from the subject; and (b) selecting the subject as a suitable candidate for the said therapy if based on an assessment that the amplification and/or expression level of the one or more genes selected from the group consisting of DPP-8 and DPP-9, and of the one or more genes selected from the group consisting of programmed death ligand-1 (PD-L1) and CD274, exceeds a predetermined threshold level.
Non human host organism comprising a polynucleotide encoding a polypeptide having an amino acid sequence which is at least 90% identical to the amino acid sequence set out in SEQ ID NO: 2, whereby in the amino acid sequences glycine at position 149 is replaced by a proteinogenic amino acid, whereby the polypeptide has γ-glutamyl kinase activity, whereby the polynucleotide is overexpressed by using a strong promotor so that the activity or concentration of the corresponding protein is increased by at least 10% based on the activity or concentration of the protein in the starting microorganism.
A suspended ceiling system comprising: a grid of profiles comprising at least one runner each being provided with a plurality of defined fixing points, said grid of profiles being suspended in a ceiling structure by means of pressure resistant suspension members in order to sustain upwardly directed loads, a ceiling panel (10, 10a, 10b, 60, 70, 110, 120) provided, at a rear surface, with at least one attachment point, and one connection member for each attachment point, wherein each connection member is connected to a selected one of said fixing points, and wherein each of the connection members comprises a lock arranged to releasably connect to one of the at least one attachment points of said ceiling panel (10, 10a, 10b, 60, 70, 110, 120) in response to the attachment point being pushed in an upward direction towards the lock, whereby the ceiling panel (10, 10a, 10b, 60, 70, 110, 120) is suspended by said at least one runner, characterized in that said ceiling panel (10, 10a, 10b, 60, 70, 110, 120) is provided with one or more attachment profiles (50a, 50b) being fixed to the rear surface of the ceiling panel (10, 10a, 10b, 60, 70, 110, 120) and said at least one attachment point being in said one or more attachment profiles (50a, 50b). a grid of profiles comprising at least one runner each being provided with a plurality of defined fixing points, said grid of profiles being suspended in a ceiling structure by means of pressure resistant suspension members in order to sustain upwardly directed loads, a ceiling panel (10, 10a, 10b, 60, 70, 110, 120) provided, at a rear surface, with at least one attachment point, and one connection member for each attachment point, wherein each connection member is connected to a selected one of said fixing points, and wherein each of the connection members comprises a lock arranged to releasably connect to one of the at least one attachment points of said ceiling panel (10, 10a, 10b, 60, 70, 110, 120) in response to the attachment point being pushed in an upward direction towards the lock, whereby the ceiling panel (10, 10a, 10b, 60, 70, 110, 120) is suspended by said at least one runner, characterized in that said ceiling panel (10, 10a, 10b, 60, 70, 110, 120) is provided with one or more attachment profiles (50a, 50b) being fixed to the rear surface of the ceiling panel (10, 10a, 10b, 60, 70, 110, 120) and said at least one attachment point being in said one or more attachment profiles (50a, 50b).
An implantable, morphology-specific occluder device comprising: an inflatable implant comprising at least one lobe, wherein a volumetric shape of the inflatable implant in an inflated state is configured to match a left atrial appendage morphology class; and a valve configured to enable a lumen to pass into an interior volume of the inflatable implant in a first direction and substantially prevent an inflation fluid from flowing in a second direction opposite the first direction; the inflation fluid configured to fill the interior volume of the inflatable implant to expand the inflatable implant from a deflated state to the inflated state; characterized by a portion of the valve comprising an anchor that can be used to secure the occluder device to the LAA. an inflatable implant comprising at least one lobe, wherein a volumetric shape of the inflatable implant in an inflated state is configured to match a left atrial appendage morphology class; and a valve configured to enable a lumen to pass into an interior volume of the inflatable implant in a first direction and substantially prevent an inflation fluid from flowing in a second direction opposite the first direction; the inflation fluid configured to fill the interior volume of the inflatable implant to expand the inflatable implant from a deflated state to the inflated state; characterized by a portion of the valve comprising an anchor that can be used to secure the occluder device to the LAA.
A user equipment handover method, the method comprising: determining, by a target base station, that user equipment, UE, needs to be handed over from a source base station to the target base station and needs to perform a handover between a unicast bearer and a broadcast/multicast bearer; and receiving, by the target base station, a data packet sent by using the unicast bearer and a data packet sent by using the broadcast/multicast bearer; characterised in that, the method further comprises: when the target base station determines, according to a synchronization protocol data packet identifier of the data packet, that a synchronization protocol data packet identifier of a data packet received by the target base station by using an original bearer is greater than or equal to a synchronization protocol data packet identifier of a data packet received by the target base station by using a target bearer, handing over, by the target base station, the UE to the target bearer wherein the multicast/multicast bearer is an eMBMS channel. determining, by a target base station, that user equipment, UE, needs to be handed over from a source base station to the target base station and needs to perform a handover between a unicast bearer and a broadcast/multicast bearer; and receiving, by the target base station, a data packet sent by using the unicast bearer and a data packet sent by using the broadcast/multicast bearer; characterised in that, the method further comprises: when the target base station determines, according to a synchronization protocol data packet identifier of the data packet, that a synchronization protocol data packet identifier of a data packet received by the target base station by using an original bearer is greater than or equal to a synchronization protocol data packet identifier of a data packet received by the target base station by using a target bearer, handing over, by the target base station, the UE to the target bearer wherein the multicast/multicast bearer is an eMBMS channel.