mhurhangee/patent-ind-claim-en huggingface dataset:
Process for producing a solid-state battery, comprising the following steps: a/ producing a metal-ion electrochemical accumulator comprising a jelly roll (F) comprising at least one electrochemical cell (C) consisting of a cathode and of an anode on either side of a separator impregnated with a liquid electrolyte, the cathode and anode each comprising a substrate, formed from a metal foil that bears in its central segment an active metal-ion insertion material, and packaging arranged to seal-tightly contain the jelly roll (F), b/ charging the accumulator electrically so that it reaches a predetermined electrical state of charge; c/ drilling the packaging; d/ removing the liquid electrolyte; e/ opening the packaging; f/ separating the anode, cathode and separator from one another; g/ depositing using a coating process at least one layer of ink forming a solid-state electrolyte on the electrode among the anode and cathode that was electrically charged to the predetermined state; h/ producing a jelly roll (F') comprising at least one electrochemical cell (C) consisting of the cathode and anode separated in step f/ and one of which is coated with the solid-state electrolyte layer deposited in step g/. a/ producing a metal-ion electrochemical accumulator comprising a jelly roll (F) comprising at least one electrochemical cell (C) consisting of a cathode and of an anode on either side of a separator impregnated with a liquid electrolyte, the cathode and anode each comprising a substrate, formed from a metal foil that bears in its central segment an active metal-ion insertion material, and packaging arranged to seal-tightly contain the jelly roll (F), b/ charging the accumulator electrically so that it reaches a predetermined electrical state of charge; c/ drilling the packaging; d/ removing the liquid electrolyte; e/ opening the packaging; f/ separating the anode, cathode and separator from one another; g/ depositing using a coating process at least one layer of ink forming a solid-state electrolyte on the electrode among the anode and cathode that was electrically charged to the predetermined state; h/ producing a jelly roll (F') comprising at least one electrochemical cell (C) consisting of the cathode and anode separated in step f/ and one of which is coated with the solid-state electrolyte layer deposited in step g/.
A coupling member comprising: a shaft defining an axis and including at least one thread having an external thread form, the external thread form having a leading flank and a trailing flank , the external thread form defining a pitch (P1) and a crest (C1), the crest (C1) having a width (W1) in a range of about 35% to about 50% of the pitch (P1) of the external thread form, wherein the leading flank and the trailing flank are angled in a proximal orientation relative to the thread axis, wherein the external thread form is configured to interlock with an internal thread form of an implant receiver , wherein the leading flank is disposed at a first angle (a1) relative to a transverse axis of the at least one thread and the trailing flank is disposed at a second angle (a2) relative to the transverse axis, the first angle being greater than the second angle, and wherein the first angle is about 15 degrees relative to the transverse axis and the second angle is about -5 degrees relative to the transverse axis. a shaft defining an axis and including at least one thread having an external thread form, the external thread form having a leading flank and a trailing flank , the external thread form defining a pitch (P1) and a crest (C1), the crest (C1) having a width (W1) in a range of about 35% to about 50% of the pitch (P1) of the external thread form, wherein the leading flank and the trailing flank are angled in a proximal orientation relative to the thread axis, wherein the external thread form is configured to interlock with an internal thread form of an implant receiver , wherein the leading flank is disposed at a first angle (a1) relative to a transverse axis of the at least one thread and the trailing flank is disposed at a second angle (a2) relative to the transverse axis, the first angle being greater than the second angle, and wherein the first angle is about 15 degrees relative to the transverse axis and the second angle is about -5 degrees relative to the transverse axis.
Workpiece carrier for transporting and/or storing components of a drug delivery device, comprising: - an array of accommodating recesses extending in a first lateral plane (x, y) and being adapted to receive at least one component of the drug delivery device, - wherein the recesses extend in vertical direction with respect to the lateral plane (x, y) to arrange the component of the drug delivery device in an upright way in the recesses , - at least one stack forming structure adapted to mate with a corresponding stack forming structure of another workpiece carrier for mutually aligning workpiece carriers when stacked on one another, - wherein the center of the at least one stack forming structure is arranged laterally offset with respect to the center of the array of accommodating recesses in at least one lateral direction (x, y), and - wherein the stack forming structure comprises a surrounding edge comprising at least in sections a corrugated or undulated structure , characterized in that - the surrounding edge comprises a left side wall section and a right side wall section , both of corrugated or undulated structure and wherein the surrounding edge vertically displaced from the array of accommodating recesses comprises an outward extending flange portion at an upper end, and - wherein the flange portion entirely surrounds the surrounding edge and comprises at least two gripping recesses . - an array of accommodating recesses extending in a first lateral plane (x, y) and being adapted to receive at least one component of the drug delivery device, - wherein the recesses extend in vertical direction with respect to the lateral plane (x, y) to arrange the component of the drug delivery device in an upright way in the recesses , - at least one stack forming structure adapted to mate with a corresponding stack forming structure of another workpiece carrier for mutually aligning workpiece carriers when stacked on one another, - wherein the center of the at least one stack forming structure is arranged laterally offset with respect to the center of the array of accommodating recesses in at least one lateral direction (x, y), and - wherein the stack forming structure comprises a surrounding edge comprising at least in sections a corrugated or undulated structure , characterized in that - the surrounding edge comprises a left side wall section and a right side wall section , both of corrugated or undulated structure and wherein the surrounding edge vertically displaced from the array of accommodating recesses comprises an outward extending flange portion at an upper end, and - wherein the flange portion entirely surrounds the surrounding edge and comprises at least two gripping recesses .
A micro-organ composite which comprises a core group of cells and an outer layer of cells, wherein the core group of cells is fully encapsulated by the outer layer of cells and wherein: (a) the cells of the core group are mesenchymal cells and the cells of the outer layer are epithelial cells; or (b) the cells of the core group are epithelial cells and the cells of the outer layer are mesenchymal cells; wherein said core group of cells and said outer layer of cells interact so as to form a basement membrane. (a) the cells of the core group are mesenchymal cells and the cells of the outer layer are epithelial cells; or (b) the cells of the core group are epithelial cells and the cells of the outer layer are mesenchymal cells; wherein said core group of cells and said outer layer of cells interact so as to form a basement membrane.
Method for manufacturing an eye implant, comprising: an optical implant region for correcting an aberration of the eye, characterised in that a surface topography of the optical implant region is set on the basis of biometrically determined acquired data from optically effective components located in front of the retina and/or from data acquired by wave front measurement, so as to correct aberrations in the eye in such a way that the optical implant region is optimised in such a way that the lateral contrast processing capacity of the retina is required only to a minimal extent for correcting the aberrations in focus, and therefore is highly available for focussing the unfocussed vision due to defocussing and increases the natural depth of focus, wherein the lateral signal processing in the retina achieving optimal monofocal vision with a visual acuity of at least 0.7 (70 %) within a depth of focus of at least 2 dioptres, as a result of the corrected aberrations at the optical implant region, and in that , after a target topography for at least one of the two surfaces of the optical implant region is determined, at least one of the two surfaces of a standard blank is processed by machining or laser-cutting or is produced by direct casting using appropriately formed casting moulds, in a manner controlled by the particular target topography, and in that the topography thus produced is measured at at least one implant surface and compared with the target topography. an optical implant region for correcting an aberration of the eye, characterised in that a surface topography of the optical implant region is set on the basis of biometrically determined acquired data from optically effective components located in front of the retina and/or from data acquired by wave front measurement, so as to correct aberrations in the eye in such a way that the optical implant region is optimised in such a way that the lateral contrast processing capacity of the retina is required only to a minimal extent for correcting the aberrations in focus, and therefore is highly available for focussing the unfocussed vision due to defocussing and increases the natural depth of focus, wherein the lateral signal processing in the retina achieving optimal monofocal vision with a visual acuity of at least 0.7 (70 %) within a depth of focus of at least 2 dioptres, as a result of the corrected aberrations at the optical implant region, and in that , after a target topography for at least one of the two surfaces of the optical implant region is determined, at least one of the two surfaces of a standard blank is processed by machining or laser-cutting or is produced by direct casting using appropriately formed casting moulds, in a manner controlled by the particular target topography, and in that the topography thus produced is measured at at least one implant surface and compared with the target topography.
A method comprising: determining, by the user device , a key stored in a secure element of the user device; the method being characterized by : determining, by a user device , data including an electronic identifier associated with the user; digitally signing (S54), by the user device , data to sign which is based on said data using the key ; determining, by the user device , a cryptogram ; and providing, by the user device , the signed data and the cryptogram to a reader device , wherein the reader device sends a request to include the signed data in an electronic ledger upon verifying the cryptogram, wherein determining the cryptogram comprises: determining, by the user device , a session key based on at least an intermediary key and a counter value ; and encrypting, by the user device , the data to sign using the session key . determining, by the user device , a key stored in a secure element of the user device; the method being characterized by : determining, by a user device , data including an electronic identifier associated with the user; digitally signing (S54), by the user device , data to sign which is based on said data using the key ; determining, by the user device , a cryptogram ; and providing, by the user device , the signed data and the cryptogram to a reader device , wherein the reader device sends a request to include the signed data in an electronic ledger upon verifying the cryptogram, determining, by a user device , data including an electronic identifier associated with the user; digitally signing (S54), by the user device , data to sign which is based on said data using the key ; determining, by the user device , a cryptogram ; and providing, by the user device , the signed data and the cryptogram to a reader device , wherein the reader device sends a request to include the signed data in an electronic ledger upon verifying the cryptogram, wherein determining the cryptogram comprises: determining, by the user device , a session key based on at least an intermediary key and a counter value ; and encrypting, by the user device , the data to sign using the session key . determining, by the user device , a session key based on at least an intermediary key and a counter value ; and encrypting, by the user device , the data to sign using the session key .
A method for adapting a watercraft comprising a hull , propulsion means which compress, by means of a turbine, a fluid taken in from an inlet and expel said fluid thus pressurized from a fluid outlet at the rear of said watercraft, said method comprising: - a step for positioning on the fluid outlet a flange which engages with a supply pipe for conveying all or some of the pressurized fluid; - a step for guiding said supply pipe along the hull ; characterized in that the method comprises a step for securing the supply pipe to the bow of the watercraft by means of a tow hook of said watercraft. - a step for positioning on the fluid outlet a flange which engages with a supply pipe for conveying all or some of the pressurized fluid; - a step for guiding said supply pipe along the hull ;
A data processing system comprising: a host computing device supporting an operating system and a network protocol stack , the network protocol stack being operable to support one or more transport streams by performing transport stream protocol processing of data packets received over the transport streams; a network interface device arranged to couple the host computing device to a network and operable to receive data packets over a transport stream supported by the network protocol stack ; and a message engine provided at the network interface device and configured to perform upper layer protocol processing; wherein the network interface device is configured to, on receiving a data packet over one of a predetermined set of transport streams, pass payload data of the data packet to the message engine and the message engine is configured to, in response to receiving the payload data, identify and process any upper layer messages in the payload data in accordance with the upper layer protocol, wherein said message engine processes said upper layer messages before the transport stream protocol processing has been completed; and is configured to generate upper layer messages from data generated by the processing of received upper layer messages for data packets to be transmitted by said network interface device to said network . a host computing device supporting an operating system and a network protocol stack , the network protocol stack being operable to support one or more transport streams by performing transport stream protocol processing of data packets received over the transport streams; a network interface device arranged to couple the host computing device to a network and operable to receive data packets over a transport stream supported by the network protocol stack ; and a message engine provided at the network interface device and configured to perform upper layer protocol processing; wherein the network interface device is configured to, on receiving a data packet over one of a predetermined set of transport streams, pass payload data of the data packet to the message engine and the message engine is configured to, in response to receiving the payload data, identify and process any upper layer messages in the payload data in accordance with the upper layer protocol, wherein said message engine processes said upper layer messages before the transport stream protocol processing has been completed; and is configured to generate upper layer messages from data generated by the processing of received upper layer messages for data packets to be transmitted by said network interface device to said network .
A breathing mask for sporting activities comprising an elastically stretchable portion configured to encircle a wearer's head or neck, and a filter portion attached to the stretchable portion , the filter portion configured as a flexible, substantially planar rectangle having a length and a width; wherein the filter portion comprises a porous, non-woven, synthetic matrix configured to retain particulates of diameter greater than 10μm; wherein the stretchable portion consists of a band of stretchable material having first and second ends affixed to respective first and second opposed ends of the filter portion so as to form a continuous loop; wherein the stretchable portion has a width that is substantially the same as the width of the filter portion ; characterised in that the porous, non-woven, synthetic matrix comprises an industrial air filter material of grade G4 under EN 779:2012; or in that the filter matrix comprises an industrial air filter material of grade M5 under EN 779:2012; or in that the filter matrix comprises an industrial air filter material of ISO 16890:2016 grade Coarse (ePM10 < 50%); or in that the filter matrix comprises an industrial air filter material of ISO 16890:2016 grade ePM10 (ePM10 ≥ 50%); and in that the stretchable portion consists of a material that is stretchable by no more than 20% of its unstretched length such that the stretchable portion holds the filter portion securely over the wearer's mouth during sporting activities, such as running, in which the wearer's head undergoes repeated acceleration and deceleration, when the breathing mask encircles the wearer's head with the filter portion located over the wearer's mouth.
The curtain wall comprising mullion profiles , transom profiles and one or more panels , wherein the mullion profiles extend vertically, wherein the transom profiles each are attached to two mullion profiles and extend horizontally, wherein the mullion profiles are provided with a groove on each side for receiving the side edge of a panel , wherein the grooves have an access opening , wherein the access opening has a first fixed dimension or width (A1) in a horizontal direction, wherein the transom profiles have a second dimension (A3) in a horizontal direction and at right angles to the profile direction of the transom profiles , wherein the second dimension (A3) is larger than the first dimension (A1), wherein the transom profiles have a third dimension (A4) in a non-horizontal direction at right angles to the profile direction, wherein the third dimension (A4) is smaller than the first dimension (A1), characterized in that the transom profiles are provided with an undercut groove extending in the profile direction and a rod inserted in the undercut groove , wherein the mullion profiles are provided with a second groove for receiving an end of said rod projecting beyond the undercut groove , thereby blocking a rotational movement of the transom profiles .
Oscillating double blade cutting system comprising a knife back , to which at least one double blade cutting element is mounted, which has a cutting area and a fastening section and is provided in the cutting area with a bore for receiving a driver pin and is provided in the fastening section with a punch hole and which has a bead , characterised in that between the cutting area and the fastening section a spacer section is formed in such a manner that the spacer section projects by an amount x beyond the knife back in the driving direction of the mowing device and that projections are formed at the spacer section in the area of the end of the cutting edges .
A method for measuring T cell receptor (TCR) affinity and obtaining TCR sequence comprising: (a) obtaining a population of antigen-specific T cells, the step comprising antigen-specific T cell isolation from a starting population of T cells using pMHC-tagged streptamers; (b) performing a micropipette adhesion assay on said antigen-specific T cells, thereby measuring the two-dimensional TCR affinity to a peptide-major histocompatibility complex (pMHC); and (c) sequencing the TCR by paired TCRα/TCRβ sequencing, thereby obtaining the sequence of said TCR. (a) obtaining a population of antigen-specific T cells, the step comprising antigen-specific T cell isolation from a starting population of T cells using pMHC-tagged streptamers; (b) performing a micropipette adhesion assay on said antigen-specific T cells, thereby measuring the two-dimensional TCR affinity to a peptide-major histocompatibility complex (pMHC); and (c) sequencing the TCR by paired TCRα/TCRβ sequencing, thereby obtaining the sequence of said TCR.
An instant coffee composition for forming a coffee beverage, wherein the composition comprises soluble coffee solids and insoluble coffee solids, the insoluble coffee solids comprising coffee oils and an insoluble coffee sediment fraction which is the non-oil portion of the insoluble coffee solids, wherein the composition comprises at least 6wt% of the insoluble coffee sediment fraction, the insoluble coffee sediment fraction comprising, when analysed after acid hydrolysis, 1wt% or less arabinose, wherein the instant coffee composition comprises at least 0.8wt% coffee oils by dry weight, and wherein the composition when analysed by wet laser diffraction at a 1.5wt% concentration has a D50 of less than 10 microns. wherein the composition comprises soluble coffee solids and insoluble coffee solids, the insoluble coffee solids comprising coffee oils and an insoluble coffee sediment fraction which is the non-oil portion of the insoluble coffee solids, wherein the composition comprises at least 6wt% of the insoluble coffee sediment fraction, the insoluble coffee sediment fraction comprising, when analysed after acid hydrolysis, 1wt% or less arabinose, wherein the instant coffee composition comprises at least 0.8wt% coffee oils by dry weight, and wherein the composition when analysed by wet laser diffraction at a 1.5wt% concentration has a D50 of less than 10 microns.