mhurhangee/ep-ind-claims huggingface dataset:
Ultrasound imaging system for producing spatially compounded 3D ultrasound image data, comprising: - an ultrasound acquisition unit for acquiring a plurality of 3D ultrasound image data having different but at least partially overlapping field of views, - a tracking unit adapted to determine a relative spatial position of each of the plurality of 3D ultrasound image data with respect to each other, and - a stitching unit adapted to compound the plurality of 3D ultrasound image data by stitching them to each other in order to generate compounded 3D ultrasound image data, wherein the stitching unit is adapted to calculate a stitching order of the plurality of 3D ultrasound image data based on the determined relative spatial position of the 3D ultrasound image data by minimizing an overlapping area of the different field of views of the plurality of 3D ultrasound image data, and wherein the stitching unit is adapted to stitch the plurality of 3D ultrasound image data according to said stitching order. - an ultrasound acquisition unit for acquiring a plurality of 3D ultrasound image data having different but at least partially overlapping field of views, - a tracking unit adapted to determine a relative spatial position of each of the plurality of 3D ultrasound image data with respect to each other, and - a stitching unit adapted to compound the plurality of 3D ultrasound image data by stitching them to each other in order to generate compounded 3D ultrasound image data, wherein the stitching unit is adapted to calculate a stitching order of the plurality of 3D ultrasound image data based on the determined relative spatial position of the 3D ultrasound image data by minimizing an overlapping area of the different field of views of the plurality of 3D ultrasound image data, and wherein the stitching unit is adapted to stitch the plurality of 3D ultrasound image data according to said stitching order.
An electrochemical infrastructure system comprising a system for providing an excitation signal, and an electrochemical system, said excitation signal is used in Electrochemical Impedance Spectroscopy diagnostics on said electrochemical system, said system comprising a power stage being a charger for said electrochemical system and connectable to said electrochemical system via a main power bus for supplying electrical energy to said electrochemical system via the main power bus, said power stage being a part of a vehicle drive train or power electronics connectable to said electrochemical system, said electrochemical system further comprising an Individual Response Analyzer for measuring the impedance of the electrochemical system in response to said excitation signal, said Individual Response Analyzer further being adapted for determining diagnostics of said electrochemical system based on said impedance, said power stage comprising an Excitation Generation Unit, said Excitation Generation Unit is adapted for instructing said power stage to generate said excitation signal for use in said Electrochemical Impedance Spectroscopy diagnostics, said power stage is adapted for generating said excitation signal and supplying said excitation signal to said electrochemical system via the main power bus when so instructed by said Excitation Generation Unit, said system further comprising a System Response Analyzer for measuring the impedance of the electrochemical system in response to said excitation signal, said System Response Analyzer being adapted for determining diagnostics of said electrochemical system based on said impedance. said excitation signal is used in Electrochemical Impedance Spectroscopy diagnostics on said electrochemical system, said system comprising a power stage being a charger for said electrochemical system and connectable to said electrochemical system via a main power bus for supplying electrical energy to said electrochemical system via the main power bus, said power stage being a part of a vehicle drive train or power electronics connectable to said electrochemical system, said electrochemical system further comprising an Individual Response Analyzer for measuring the impedance of the electrochemical system in response to said excitation signal, said Individual Response Analyzer further being adapted for determining diagnostics of said electrochemical system based on said impedance, said power stage comprising an Excitation Generation Unit, said Excitation Generation Unit is adapted for instructing said power stage to generate said excitation signal for use in said Electrochemical Impedance Spectroscopy diagnostics, said power stage is adapted for generating said excitation signal and supplying said excitation signal to said electrochemical system via the main power bus when so instructed by said Excitation Generation Unit, said system further comprising a System Response Analyzer for measuring the impedance of the electrochemical system in response to said excitation signal, said System Response Analyzer being adapted for determining diagnostics of said electrochemical system based on said impedance.
A process for the production of a low-mineral quark matrix, comprising the following steps: (a) producing a skimmed milk by heat treatment of raw milk, and separation of cream; (b) subjecting the skimmed milk such obtained to an ultrafiltration step, with a membrane having a cut-off of 1,000 to 50,000 Dalton, obtaining a high-protein retentate R1 and a high-lactose permeate P1; (c) enriching the retentate R1 with an amount of lactose which corresponds to the amount separated in the ultrafiltration step as permeate, (d) heat treating the enrichment product such obtained until denaturation sets in, (e) fermenting the denaturation product such obtained by adding starter cultures and rennet, and (f) adjusting the fermentation product thus obtained to defined dry matter and protein content, (a) producing a skimmed milk by heat treatment of raw milk, and separation of cream; (b) subjecting the skimmed milk such obtained to an ultrafiltration step, with a membrane having a cut-off of 1,000 to 50,000 Dalton, obtaining a high-protein retentate R1 and a high-lactose permeate P1; (c) enriching the retentate R1 with an amount of lactose which corresponds to the amount separated in the ultrafiltration step as permeate, (d) heat treating the enrichment product such obtained until denaturation sets in, (e) fermenting the denaturation product such obtained by adding starter cultures and rennet, and (f) adjusting the fermentation product thus obtained to defined dry matter and protein content,
A system comprising: a processor configured to execute in a trusted execution environment, TEE, wherein the processor is configured to: receive a plurality of attestation reports in a plurality of attestation sessions from a plurality of reporting nodes of a first network including a plurality of nodes (125 0 -125 x), each of the plurality of attestation sessions in the corresponding reporting node based on a common random seed value used to form a Diffie-Hellman value that is common among the plurality of reporting nodes, determine whether at least a threshold number of the plurality of attestation sessions produce identical attestation reports, responsive to at least the threshold number of the plurality of attestation sessions providing the identical attestation reports, decrypt the plurality of attestation reports, process the decrypted plurality of attestation reports to obtain aggregated telemetry data of the plurality of nodes, and enforce a security policy based at least in part on the aggregated telemetry data, wherein an identity of the plurality of nodes is to remain anonymous to the system, wherein said determining whether at least a threshold number of the plurality of attestation sessions produce identical attestation reports includes determining whether at least the threshold number of the plurality of attestation sessions comprises a common Diffie-Hellmann value. receive a plurality of attestation reports in a plurality of attestation sessions from a plurality of reporting nodes of a first network including a plurality of nodes (125 0 -125 x), each of the plurality of attestation sessions in the corresponding reporting node based on a common random seed value used to form a Diffie-Hellman value that is common among the plurality of reporting nodes, determine whether at least a threshold number of the plurality of attestation sessions produce identical attestation reports, responsive to at least the threshold number of the plurality of attestation sessions providing the identical attestation reports, decrypt the plurality of attestation reports, process the decrypted plurality of attestation reports to obtain aggregated telemetry data of the plurality of nodes, and enforce a security policy based at least in part on the aggregated telemetry data, wherein an identity of the plurality of nodes is to remain anonymous to the system, wherein said determining whether at least a threshold number of the plurality of attestation sessions produce identical attestation reports includes determining whether at least the threshold number of the plurality of attestation sessions comprises a common Diffie-Hellmann value.
A method for transmitting data of a biological or biochemical analysis, for example at the point-of-care, the analysis including a pre-analytical phase and an analytical phase with the contacting of the sample with a reagent and the development of the result, said method comprising: - a step for acquiring the implementation of the pre-analytical phase in order to obtain a video recording, then - a step for acquiring the obtained result during the implementation of the analytical phase, and - a step for transmission in order to transmit the recording and the result, intangibly. - a step for acquiring the implementation of the pre-analytical phase in order to obtain a video recording, then - a step for acquiring the obtained result during the implementation of the analytical phase, and - a step for transmission in order to transmit the recording and the result, intangibly.
A field effect gas sensor (1; 20; 30), for detecting a presence of a gaseous substance in a gas mixture, said field effect gas sensor comprising: a SiC semiconductor structure (2; 3; 4; 5; 6); an electron insulating layer covering a first portion of said SiC semiconductor structure; a first contact structure at least partly separated from said SiC semiconductor structure by said electron insulating layer; and a second contact structure (8b; 14) conductively connected to a second portion of said SiC semiconductor structure, different from said first portion, wherein at least one of said electron insulating layer and said first contact structure is configured to interact with said gaseous substance to change an electrical property of said SiC semiconductor structure; and wherein said second contact structure (8b; 14) comprises: an ohmic contact layer in direct contact with the second portion of said SiC semiconductor structure; and a barrier layer covering said ohmic contact layer, said barrier layer being formed by an electrically conducting metal oxide selected from the group of metal oxides consisting of IrO 2, RuO 2, RhO 2, and ReO 3. a SiC semiconductor structure (2; 3; 4; 5; 6); an electron insulating layer covering a first portion of said SiC semiconductor structure; a first contact structure at least partly separated from said SiC semiconductor structure by said electron insulating layer; and a second contact structure (8b; 14) conductively connected to a second portion of said SiC semiconductor structure, different from said first portion, wherein at least one of said electron insulating layer and said first contact structure is configured to interact with said gaseous substance to change an electrical property of said SiC semiconductor structure; and wherein said second contact structure (8b; 14) comprises: an ohmic contact layer in direct contact with the second portion of said SiC semiconductor structure; and a barrier layer covering said ohmic contact layer, said barrier layer being formed by an electrically conducting metal oxide selected from the group of metal oxides consisting of IrO 2, RuO 2, RhO 2, and ReO 3. an ohmic contact layer in direct contact with the second portion of said SiC semiconductor structure; and a barrier layer covering said ohmic contact layer, said barrier layer being formed by an electrically conducting metal oxide selected from the group of metal oxides consisting of IrO 2, RuO 2, RhO 2, and ReO 3.
A laundry machine comprising a rotary drum, in which the laundry is to be placed, an electric motor rotating the rotary drum and a front door allowing access into the rotary drum for loading or unloading laundry through an access opening, the front door having an outer frame and an inner frame, the laundry machine further comprising a handle mounted to the door outer frame to effect locking and unlocking of the front door, wherein - an outer handle element and an inner handle element of the handle are interconnected to each other in the manner that a handle engagement portion of the door outer frame, which extends along the door outer frame between two ends, is interposed between the outer handle element and the inner handle element, the handle engagement portion effectuating interconnection of the outer handle element with the inner handle element so as to fixedly secure the door outer frame thereinbetween, - the outer handle element has retaining means extending at both said ends of the handle engagement portion along which the outer and inner handle elements (8, 9) are mounted, the retaining means engaging with an outer frame locking extension of the door outer frame. - an outer handle element and an inner handle element of the handle are interconnected to each other in the manner that a handle engagement portion of the door outer frame, which extends along the door outer frame between two ends, is interposed between the outer handle element and the inner handle element, the handle engagement portion effectuating interconnection of the outer handle element with the inner handle element so as to fixedly secure the door outer frame thereinbetween, - the outer handle element has retaining means extending at both said ends of the handle engagement portion along which the outer and inner handle elements (8, 9) are mounted, the retaining means engaging with an outer frame locking extension of the door outer frame.
The use of an alkoxylated polytetrahydrofurane of general formula wherein m is an integer in the range of ≥ 1 to ≤ 50, m' is an integer in the range of ≥ 1 to ≤ 50, (m+m') is an integer in the range of ≥ 1 to ≤ 90, n is an integer in the range of ≥ 0 to ≤ 75, n' is an integer in the range of ≥ 0 to ≤ 75, p is an integer in the range of ≥ 0 to ≤ 75, p' is an integer in the range of ≥ 0 to ≤ 75, k is an integer in the range of ≥ 2 to ≤ 30, R 1 denotes an unsubstituted, linear or branched, alkyl radical having 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16, 17, 18, 19, 20, 21, 22, 23, 24, 25, 26, 27 or 28 carbon atoms, R 2 denotes -CH 2 -CH 3, and R 3 identical or different, denotes a hydrogen atom or -CH 3, whereby the concatenations denoted by k are distributed to form a block polymeric structure and the concatenations denoted by p, p', n, n', m and m' are distributed to form a block polymeric structure or a random polymeric structure, as an additive in a fuel for reducing fuel consumption in the operation of an internal combustion engine with this fuel. m is an integer in the range of ≥ 1 to ≤ 50, m' is an integer in the range of ≥ 1 to ≤ 50, (m+m') is an integer in the range of ≥ 1 to ≤ 90, n is an integer in the range of ≥ 0 to ≤ 75, n' is an integer in the range of ≥ 0 to ≤ 75, p is an integer in the range of ≥ 0 to ≤ 75, p' is an integer in the range of ≥ 0 to ≤ 75, k is an integer in the range of ≥ 2 to ≤ 30, R 1 denotes an unsubstituted, linear or branched, alkyl radical having 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16, 17, 18, 19, 20, 21, 22, 23, 24, 25, 26, 27 or 28 carbon atoms, R 2 denotes -CH 2 -CH 3, and R 3 identical or different, denotes a hydrogen atom or -CH 3,
A system for monitoring at least presence of a bioanalyte, comprising: a substrate having a skin contact surface, a microneedle outwardly protruding from said skin contact surface, a sensing complex positioned in said microneedle, and a circuit attached to said substrate; wherein said sensing complex comprises a nanostructure modified by a functional moiety covalently attached thereto, and an affinity moiety effective to react specifically with the bioanalyte to produce a reaction product; and wherein said circuit is configured for applying voltage to said nanostructure and monitoring changes in an electrical property of said nanostructure responsively to reaction between said reaction product and said functional moiety. a substrate having a skin contact surface, a microneedle outwardly protruding from said skin contact surface, a sensing complex positioned in said microneedle, and a circuit attached to said substrate; wherein said sensing complex comprises a nanostructure modified by a functional moiety covalently attached thereto, and an affinity moiety effective to react specifically with the bioanalyte to produce a reaction product; and wherein said circuit is configured for applying voltage to said nanostructure and monitoring changes in an electrical property of said nanostructure responsively to reaction between said reaction product and said functional moiety.
A spatially-resolving charge detection device comprising: a resistive element defining a detection surface and being capacitively coupled to at least one two-dimensional planar array of discrete electrodes which are electrically insulated from one another, each electrode in the array being capacitively coupled to its adjacent electrodes in the array to form a capacitively coupled network of electrodes, selected ones of the electrodes in the array each being coupled to an array output for connection to a respective charge measurement device (28A-D); the resistive element having a resistivity sufficient to temporarily localize a charge captured on the resistive element to an area corresponding to a subset of said electrodes in the array to form a capacitively induced charge thereon for a duration sufficient for signal measurement from the array of electrodes by the charge measurement devices (28A-D), wherein the capacitive coupling of the electrodes in the array results in division of the capacitively induced charge among the electrodes such that the spatial position of the charge localized on the resistive element can be determined based on the relative outputs of the charge measurement devices (28A-D). a resistive element defining a detection surface and being capacitively coupled to at least one two-dimensional planar array of discrete electrodes which are electrically insulated from one another, each electrode in the array being capacitively coupled to its adjacent electrodes in the array to form a capacitively coupled network of electrodes, selected ones of the electrodes in the array each being coupled to an array output for connection to a respective charge measurement device (28A-D); the resistive element having a resistivity sufficient to temporarily localize a charge captured on the resistive element to an area corresponding to a subset of said electrodes in the array to form a capacitively induced charge thereon for a duration sufficient for signal measurement from the array of electrodes by the charge measurement devices (28A-D), wherein the capacitive coupling of the electrodes in the array results in division of the capacitively induced charge among the electrodes such that the spatial position of the charge localized on the resistive element can be determined based on the relative outputs of the charge measurement devices (28A-D).
Modified oligonucleotide of the general formula: wherein: • Oligo represents an antisense oligonucleotide sequence which may be oriented 3'-5' or 5'-3', single stranded, DNA, RNA, and/or comprise modified nucleotides; • X represents a divalent linker moiety selected from ether -O-, thio -S-, amino -NH-, and methylene -CH 2 -; • R 1 and R 2 may be identical or different and represent: (i) a hydrogen atom, (ii) a halogen atom, in particular fluorine atom, (iii) a hydroxyl group, (iv) an alkyl group comprising from 1 to 12 carbon atoms; • L 1 and L 2 may be identical or different and represent a saturated or unsaturated, linear or branched hydrocarbon chain comprising from 10 to 22 carbon atoms, • B is an optionally substituted nucleobase, selected from the group consisting of purine nucleobases, pyrimidine nucleobases, and non-natural monocyclic or bicyclic heterocyclic nucleobases wherein each cycle comprises from 4 to 7 atoms; for use as a medicament • Oligo represents an antisense oligonucleotide sequence which may be oriented 3'-5' or 5'-3', single stranded, DNA, RNA, and/or comprise modified nucleotides; • X represents a divalent linker moiety selected from ether -O-, thio -S-, amino -NH-, and methylene -CH 2 -; • R 1 and R 2 may be identical or different and represent: (i) a hydrogen atom, (ii) a halogen atom, in particular fluorine atom, (iii) a hydroxyl group, (iv) an alkyl group comprising from 1 to 12 carbon atoms; (i) a hydrogen atom, (ii) a halogen atom, in particular fluorine atom, (iii) a hydroxyl group, (iv) an alkyl group comprising from 1 to 12 carbon atoms; • L 1 and L 2 may be identical or different and represent a saturated or unsaturated, linear or branched hydrocarbon chain comprising from 10 to 22 carbon atoms, • B is an optionally substituted nucleobase, selected from the group consisting of purine nucleobases, pyrimidine nucleobases, and non-natural monocyclic or bicyclic heterocyclic nucleobases wherein each cycle comprises from 4 to 7 atoms; for use as a medicament
An apparatus for providing a radiation dose to a target in a treatment subject, characterized in that the apparatus comprising: a dosage determination module configured to communicate with an imaging system from which at least non-anatomic imaging information of the target is acquired from at least one imaging marker for internal tumor cellular features that reflects a histological feature of the target, the histological feature comprising at least one of cellular characteristics, extracellular matrix, cellular density, or organization, wherein the dosage determination module is further configured to: analyze the non-anatomic imaging information acquired from the imaging system; compute the radiation dose based on the non-anatomic imaging information; and cause an administration of the radiation dose based on the non-anatomic imaging information to the target in the treatment subject. a dosage determination module configured to communicate with an imaging system from which at least non-anatomic imaging information of the target is acquired from at least one imaging marker for internal tumor cellular features that reflects a histological feature of the target, the histological feature comprising at least one of cellular characteristics, extracellular matrix, cellular density, or organization, wherein the dosage determination module is further configured to: analyze the non-anatomic imaging information acquired from the imaging system; compute the radiation dose based on the non-anatomic imaging information; and cause an administration of the radiation dose based on the non-anatomic imaging information to the target in the treatment subject. analyze the non-anatomic imaging information acquired from the imaging system; compute the radiation dose based on the non-anatomic imaging information; and