mhurhangee/ep-ind-claims huggingface dataset:
An optical article comprising (a) a transparent optical polymer substrate, (b) a transparent intermediate abrasion-resistant coating obtained from at least one epoxysilane by a sol-gel process, and (c) a transparent outer coating comprising a polythiol-ene matrix obtained by curing a liquid monomer mixture comprising at least one polyfunctional thiol chosen from a tetrathiol of formula: and at least one polyfunctional allyl monomer chosen from a triallyl isocyanurate, said cured polythiol-ene matrix having a glass transition temperature comprised in the range from 40 °C to 70 °C and a thickness from 3.5 μm to less than 10 μm. (a) a transparent optical polymer substrate, (b) a transparent intermediate abrasion-resistant coating obtained from at least one epoxysilane by a sol-gel process, and (c) a transparent outer coating comprising a polythiol-ene matrix obtained by curing a liquid monomer mixture comprising at least one polyfunctional thiol chosen from a tetrathiol of formula: and at least one polyfunctional allyl monomer chosen from a triallyl isocyanurate, said cured polythiol-ene matrix having a glass transition temperature comprised in the range from 40 °C to 70 °C and a thickness from 3.5 μm to less than 10 μm.
A method for determining a bodily characteristic, comprising: collecting sets of reflected backscatter data for a sequence of ultra-wideband pulses transmitted via an UWB sensor comprising an array of transmit and receive antenna pairs positioned on a body of a user, and a corresponding calibration measurement from a calibration channel in the UWB sensor; determining reflection coefficients for each tissue interface based on the sets of reflected backscatter data, the reflection coefficients determined from reflection profiles based upon the reflected backscatter data for that sequence of UWB pulses and the corresponding calibration measurement, wherein the reflection profile is associated with a model of tissue layers in the body between the UWB sensor and the lung tissue; and determining a fluid level content of the lung tissue based upon the reflection coefficients; characterized in that the reflection profiles are determined based upon sparse deconvolution of a wideband beamformed signal of that set of reflected backscatter data using a compensated UWB pulse shape that is based upon the corresponding calibration measurement, wherein the compensated UWB pulse shape is compensated for temperature changes. collecting sets of reflected backscatter data for a sequence of ultra-wideband pulses transmitted via an UWB sensor comprising an array of transmit and receive antenna pairs positioned on a body of a user, and a corresponding calibration measurement from a calibration channel in the UWB sensor; determining reflection coefficients for each tissue interface based on the sets of reflected backscatter data, the reflection coefficients determined from reflection profiles based upon the reflected backscatter data for that sequence of UWB pulses and the corresponding calibration measurement, wherein the reflection profile is associated with a model of tissue layers in the body between the UWB sensor and the lung tissue; and determining a fluid level content of the lung tissue based upon the reflection coefficients; characterized in that the reflection profiles are determined based upon sparse deconvolution of a wideband beamformed signal of that set of reflected backscatter data using a compensated UWB pulse shape that is based upon the corresponding calibration measurement, wherein the compensated UWB pulse shape is compensated for temperature changes.
An isolated human truncated cystathionine β-synthase (htCBS) mutant polypeptide comprising an amino acid sequence sharing an amino acid sequence identity of at least 50%, at least 60%, at least 70%, at least 80%, at least 90%, at least 95% or at least 99% compared with SEQ ID NO: 2; and a mutation of a cysteine to a serine at amino acid position 15 compared to a CBS protein comprising the amino acid sequence of SEQ ID NO: 2, wherein the amino acid sequence of the mutant polypeptide includes C-terminal deletion of residues 383-551, 397-551, or 414-551, compared to SEQ ID NO: 2, wherein the isolated htCBS mutant polypeptide is covalently PEGylated.
Method for operating at least one pair of virtual reality glasses (4, 5) in a motor vehicle, having the steps of: - determining a virtual theme, which defines a particular virtual movement type in a virtual environment, - selecting a route, the path of which best matches the predetermined virtual theme, - detecting movements of the motor vehicle during a journey along the selected route and controlling the virtual reality glasses (4, 5) in such a way that a vehicle occupant (2, 3) wearing the virtual reality glasses (4, 5) moves virtually in the virtual environment according to the detected movements of the motor vehicle and according to the predetermined virtual movement type for the predetermined virtual theme. - determining a virtual theme, which defines a particular virtual movement type in a virtual environment, - selecting a route, the path of which best matches the predetermined virtual theme, - detecting movements of the motor vehicle during a journey along the selected route and controlling the virtual reality glasses (4, 5) in such a way that a vehicle occupant (2, 3) wearing the virtual reality glasses (4, 5) moves virtually in the virtual environment according to the detected movements of the motor vehicle and according to the predetermined virtual movement type for the predetermined virtual theme.
A cascode transistor circuit comprising: a gallium nitride or silicon carbide field effect transistor having its drain connected to a high power line a silicon MOSFET with its drain connected to the source of the gallium nitride or silicon carbide FET and its source connected to a low power line and formed as a part of an integrated circuit, wherein the gallium nitride or silicon carbide field effect transistor and the integrated circuit are packaged to form the cascode transistor circuit; a control and protection circuit (14, 16, 20) integrated into the integrated circuit comprising at least one active component; wherein the at least one active component comprises a comparator for comparing the MOSFET source voltage with the MOSFET drain voltage and a control switch to turn on the MOSFET when the source voltage exceeds the drain voltage. a storage capacitor for providing an energy source to drive the active components; and a charging circuit (D1,D2) integrated into the integrated circuit for charging the storage capacitor. a gallium nitride or silicon carbide field effect transistor having its drain connected to a high power line a silicon MOSFET with its drain connected to the source of the gallium nitride or silicon carbide FET and its source connected to a low power line and formed as a part of an integrated circuit, wherein the gallium nitride or silicon carbide field effect transistor and the integrated circuit are packaged to form the cascode transistor circuit; a control and protection circuit (14, 16, 20) integrated into the integrated circuit comprising at least one active component; wherein the at least one active component comprises a comparator for comparing the MOSFET source voltage with the MOSFET drain voltage and a control switch to turn on the MOSFET when the source voltage exceeds the drain voltage. a storage capacitor for providing an energy source to drive the active components; and a charging circuit (D1,D2) integrated into the integrated circuit for charging the storage capacitor.
A fiber reinforced thermoplastic composite, comprising: a) a continuous thermoplastic polymer phase comprising: i. a polyetherimide having a weight average molecular weight of at least 50,000 Daltons, as measured by gel permeation chromatography using a polystyrene standard; and ii. a polyetheretherketone having a melt viscosity less than 125 Pascal-seconds (Pa-s) when determined under the conditions of 400 °C and a shear rate of 1000/s; and b) a dispersed phase comprising a plurality of carbon fibers having a tensile modulus in the range of from 262 to 331 GPa (38 to 48 million pounds per square inch) dispersed within the continuous thermoplastic polymer phase, wherein the plurality of carbon fibers are present in an amount that is at least 35 wt% of the total weight of the composite; wherein the composite exhibits a specific modulus of at least 25, as measured by elastic modulus per mass density; wherein the composite exhibits a tensile strength of at least 226 MPa as measured using a Material Testing System from Instron with a test speed of 5 mm/min and carried out in accordance with ASTM D 638; and wherein the composite exhibits a heat release profile characterized by a 2 minute total heat release less than 65 kW min/m 2 and a peak heat release rate less than 65 kW/m 2 when measured according to the Ohio State University Heat Release test. a) a continuous thermoplastic polymer phase comprising: i. a polyetherimide having a weight average molecular weight of at least 50,000 Daltons, as measured by gel permeation chromatography using a polystyrene standard; and ii. a polyetheretherketone having a melt viscosity less than 125 Pascal-seconds (Pa-s) when determined under the conditions of 400 °C and a shear rate of 1000/s; and i. a polyetherimide having a weight average molecular weight of at least 50,000 Daltons, as measured by gel permeation chromatography using a polystyrene standard; and ii. a polyetheretherketone having a melt viscosity less than 125 Pascal-seconds (Pa-s) when determined under the conditions of 400 °C and a shear rate of 1000/s; and b) a dispersed phase comprising a plurality of carbon fibers having a tensile modulus in the range of from 262 to 331 GPa (38 to 48 million pounds per square inch) dispersed within the continuous thermoplastic polymer phase, wherein the plurality of carbon fibers are present in an amount that is at least 35 wt% of the total weight of the composite;
A fuse unit including a fuse element therein, the fuse unit comprising: a first resin body; a second resin body connected to the first resin body by a hinge portion and configured to be bent around the hinge portion with respect to the first resin body; a first opposing wall provided on the first resin body; a second opposing wall provided on the second resin body and opposing the first opposing wall, so that the hinge portion is disposed between the first opposing wall and the second opposing wall; a pair of first side walls (52, 53) provided on the first resin body and extending in a direction intersecting an axis of the bending of the second resin body; a pair of second side walls (72, 73) provided on the second resin body and extending in a direction intersecting the axis of the bending of the second resin body; a pair of lock arms (11, 12) provided at the first side walls respectively; a pair of engaging parts (13, 14), provided at the lock arms respectively; and a pair of engaged parts (17, 18), provided at the second side walls respectively, and corresponding to the engaging parts respectively, charaterized in that each of the engaging parts has a first inclined face (25, 35) and each of the engaged parts has a second inclined face configured to contact the first inclined face in surface contact in a state that the second resin body is bent, and the first inclined face and the second inclined face are formed along a direction intersecting a direction of a reaction force by springback of the fuse element caused by the bending of the second resin body. a first resin body; a second resin body connected to the first resin body by a hinge portion and configured to be bent around the hinge portion with respect to the first resin body; a first opposing wall provided on the first resin body; a second opposing wall provided on the second resin body and opposing the first opposing wall, so that the hinge portion is disposed between the first opposing wall and the second opposing wall; a pair of first side walls (52, 53) provided on the first resin body and extending in a direction intersecting an axis of the bending of the second resin body; a pair of second side walls (72, 73) provided on the second resin body and extending in a direction intersecting the axis of the bending of the second resin body; a pair of lock arms (11, 12) provided at the first side walls respectively; a pair of engaging parts (13, 14), provided at the lock arms respectively; and a pair of engaged parts (17, 18), provided at the second side walls respectively, and corresponding to the engaging parts respectively, each of the engaging parts has a first inclined face (25, 35) and each of the engaged parts has a second inclined face configured to contact the first inclined face in surface contact in a state that the second resin body is bent, and the first inclined face and the second inclined face are formed along a direction intersecting a direction of a reaction force by springback of the fuse element caused by the bending of the second resin body.
An intervertebral spacer (600, 900, 1000) for implantation between first and second vertebral bodies of a portion of a spine, the spacer having a first end (618, 910, 1010) and a second end (620, 912, 1012) and a first axis (602, 902, 1002) extending therebetween, the spacer including: a first support member (630, 930, 1030) including a first upper body (632, 932, 1032) and a first lower body (634, 934, 1034); a second support member (640, 940, 1040); a first end body (650, 950, 1050) located at the spacer first end (618, 910, 1010) and connected to the first (630, 930, 1030) and second (640, 940, 1040) support members; and a second end body (652, 952, 1052) located at the spacer second end (620, 912, 1012) and connected to the first (630, 930, 1030) and second (640, 940, 1040) support members; and a non-threaded bore extending through the second end body (652, 952, 1052) optionally configured to allow access for instrumentation, graft insertion and a locking screw, wherein the intervertebral spacer is expandable by an application of axial force along the first axis to expand the first support member (630, 930, 1030) away from the second support member (640, 940, 1040) along a first direction, and to expand the first upper body (632, 932, 1032) away from the first lower body (634, 934, 1034) along a second direction; and wherein the axial force acts upon at least one of the end bodies (650, 652, 950, 952, 1050, 1052) to expand the spacer). a first support member (630, 930, 1030) including a first upper body (632, 932, 1032) and a first lower body (634, 934, 1034); a second support member (640, 940, 1040); a first end body (650, 950, 1050) located at the spacer first end (618, 910, 1010) and connected to the first (630, 930, 1030) and second (640, 940, 1040) support members; and a second end body (652, 952, 1052) located at the spacer second end (620, 912, 1012) and connected to the first (630, 930, 1030) and second (640, 940, 1040) support members; and a non-threaded bore extending through the second end body (652, 952, 1052) optionally configured to allow access for instrumentation, graft insertion and a locking screw, wherein the intervertebral spacer is expandable by an application of axial force along the first axis to expand the first support member (630, 930, 1030) away from the second support member (640, 940, 1040) along a first direction, and to expand the first upper body (632, 932, 1032) away from the first lower body (634, 934, 1034) along a second direction; and wherein the axial force acts upon at least one of the end bodies (650, 652, 950, 952, 1050, 1052) to expand the spacer).
A vertical-cavity surface-emitting laser, VCSEL, element comprising: an oxide aperture; a mesa comprising a first mesa portion surrounding the oxide aperture and a mesa tab, the mesa tab extending outwardly from the first mesa portion, wherein ohmic metal is provided on the mesa tab; a nitride via on the mesa tab and extending towards the oxide aperture; and a ring of interconnect metal, characterized in that the VCSEL further comprises an etched trench completely surrounding the oxide aperture, wherein the etched trench is configured to electrically isolate the oxide aperture. an oxide aperture; a mesa comprising a first mesa portion surrounding the oxide aperture and a mesa tab, the mesa tab extending outwardly from the first mesa portion, wherein ohmic metal is provided on the mesa tab; a nitride via on the mesa tab and extending towards the oxide aperture; and a ring of interconnect metal, characterized in that the VCSEL further comprises an etched trench completely surrounding the oxide aperture, wherein the etched trench is configured to electrically isolate the oxide aperture.
A computer-implemented method comprising: generating a set of machine dependent intermediate language files - MDIL files - for an application by compiling preliminary code of the application into machine dependent intermediate language code - MDIL code - the MDIL code including machine-dependent instructions based on a processor instruction set, and unresolved pseudo instructions with symbolic references which are to be resolved to generate native instructions through binding; signing respective files of the set of MDIL files to indicate the respective files are trusted as being from an online marketplace; generating a binding list that identifies the respective files of the set of MDIL files that are to be bound to generate a native image for the application, and a listing of a set of one or more libraries that are to be bound to the MDIL files; generating (410; 540) a device-type-specific installation package for the application comprising the set of MDIL files for the application and the binding list; and providing, at the online marketplace, the installation package for downloading. generating a set of machine dependent intermediate language files - MDIL files - for an application by compiling preliminary code of the application into machine dependent intermediate language code - MDIL code - the MDIL code including machine-dependent instructions based on a processor instruction set, and unresolved pseudo instructions with symbolic references which are to be resolved to generate native instructions through binding; signing respective files of the set of MDIL files to indicate the respective files are trusted as being from an online marketplace; generating a binding list that identifies the respective files of the set of MDIL files that are to be bound to generate a native image for the application, and a listing of a set of one or more libraries that are to be bound to the MDIL files; generating (410; 540) a device-type-specific installation package for the application comprising the set of MDIL files for the application and the binding list; and providing, at the online marketplace, the installation package for downloading.
A process for preparing a substantially optically pure compound of Formula: the process comprising: reacting a compound of Formula: with an activating agent, in the optional presence of a base, to form an intermediate of Formula (I-A): wherein LG is a leaving group; treating the intermediate of Formula (I-A) with a base solution in the presence of an alcohol solvent, to eliminate the leaving group and thereby forming an intermediate of Formula (I-B): hydrolyzing the intermediate of Formula (I-B) to form a compound of Formula: hydrogenating the compound of Formula to form a compound of Formula: resolving the compound of Formula to form a substantially optically pure compound of Formula: and acylating the compound of Formula to form the compound of Formula. reacting a compound of Formula: with an activating agent, in the optional presence of a base, to form an intermediate of Formula (I-A): wherein LG is a leaving group; treating the intermediate of Formula (I-A) with a base solution in the presence of an alcohol solvent, to eliminate the leaving group and thereby forming an intermediate of Formula (I-B): hydrolyzing the intermediate of Formula (I-B) to form a compound of Formula: hydrogenating the compound of Formula to form a compound of Formula: resolving the compound of Formula to form a substantially optically pure compound of Formula: and acylating the compound of Formula to form the compound of Formula. resolving the compound of Formula to form a substantially optically pure compound of Formula: and acylating the compound of Formula to form the compound of Formula.
A method for determining an analyte concentration in a physiological sample, the method comprising: (a) introducing the physiological sample into an electrochemical cell comprising: (i) first and second electrodes in a spaced apart relationship; and (ii) a reagent layer comprising an enzyme and a mediator, (b) applying a first electric potential having a first polarity to the reaction cell and measuring cell current as a function of time to obtain a first time-current transient; (c) applying a second electric potential having a second polarity to the cell, wherein the second polarity is opposite the first polarity, and measuring cell current as a function of time to obtain a second time-current transient; and (d) calculating a first current value based on an integral of current values over a first time interval of the second time-current transient; (e) calculating a second current value based on an integral of current values over a second time interval of the second time-current transient and a third current value based on an integral of current values over a third time interval of the first time-current transient, wherein the first, second, and third time intervals are determined empirically such that the determined analyte concentration is accurate within ± 10% of a reference measurement, and has variation of 2 % at 1σ; (f) calculating a ratio which comprises the second current value divided by the third current value; and (g) multiplying the first current value less a background value by the ratio to derive analyte concentration. (a) introducing the physiological sample into an electrochemical cell comprising: (i) first and second electrodes in a spaced apart relationship; and (ii) a reagent layer comprising an enzyme and a mediator, (i) first and second electrodes in a spaced apart relationship; and (ii) a reagent layer comprising an enzyme and a mediator, (b) applying a first electric potential having a first polarity to the reaction cell and measuring cell current as a function of time to obtain a first time-current transient; (c) applying a second electric potential having a second polarity to the cell, wherein the second polarity is opposite the first polarity, and measuring cell current as a function of time to obtain a second time-current transient; and (d) calculating a first current value based on an integral of current values over a first time interval of the second time-current transient; (e) calculating a second current value based on an integral of current values over a second time interval of the second time-current transient and a third current value based on an integral of current values over a third time interval of the first time-current transient, wherein the first, second, and third time intervals are determined empirically such that the determined analyte concentration is accurate within ± 10% of a reference measurement, and has variation of 2 % at 1σ; (f) calculating a ratio which comprises the second current value divided by the third current value; and (g) multiplying the first current value less a background value by the ratio to derive analyte concentration.