mhurhangee/ep-ind-claims huggingface dataset:
A method for producing single- or multilayer lignocellulose materials composed of one or a plurality of layer (s) (Lr) and optionally one or a plurality of further layer(s) (FLr) comprising the method steps of mixing of the components into one or a plurality of mixture(s), scattering of the mixture(s) produced in method step to form a mat, precompression of the scattered mat and heating and pressing of the precompressed mat, wherein the mixture (s) used in method step for the one or a plurality of layer(s) (Lr) comprises lignocellulose particles (component L), • caprolactam, oligomers of caprolactam or mixtures thereof (component A), • binders based on isocyanate comprising polycyclic diphenylmethane diisocyanate (component B), • water (component C) and • optionally one or a plurality of additives (component D). mixing of the components into one or a plurality of mixture(s), scattering of the mixture(s) produced in method step to form a mat, precompression of the scattered mat and heating and pressing of the precompressed mat, • caprolactam, oligomers of caprolactam or mixtures thereof (component A), • binders based on isocyanate comprising polycyclic diphenylmethane diisocyanate (component B), • water (component C) and • optionally one or a plurality of additives (component D).
A vehicle, comprising: a power storage device configured to transmit electric power to and from a motor for driving; a solar power generation system configured to generate electric power using sunlight and to perform solar charging that charges the power storage device with the generated electric power; and a control device (50, 70) configured to control the solar power generation system, the vehicle (20, 120) being configured to perform external charging that charges the power storage device with electric power from an external power supply apparatus (90, 180, 190), characterized in that the control device (50, 70) prohibits the solar charging until a standby time has elapsed since an off operation of an ignition switch and permits the solar charging when the standby time has elapsed; wherein the control device (50, 70) does not permit the solar charging during execution or during preparation of the external charging, even when the standby time has elapsed since an off operation of the ignition switch. a power storage device configured to transmit electric power to and from a motor for driving; a solar power generation system configured to generate electric power using sunlight and to perform solar charging that charges the power storage device with the generated electric power; and a control device (50, 70) configured to control the solar power generation system, the vehicle (20, 120) being configured to perform external charging that charges the power storage device with electric power from an external power supply apparatus (90, 180, 190), characterized in that the control device (50, 70) prohibits the solar charging until a standby time has elapsed since an off operation of an ignition switch and permits the solar charging when the standby time has elapsed; wherein the control device (50, 70) does not permit the solar charging during execution or during preparation of the external charging, even when the standby time has elapsed since an off operation of the ignition switch.
A mass exchange apparatus for use in blood/air mass exchange comprising (a) plural blood flow conduits (10a-10c) for defining a blood flow from a blood flow inlet provided thereto; and (b) plural air flow conduits (20a-20c) for defining an air flow (22a-22c) from an air flow inlet provided thereto; wherein said plural air flow conduits (20a-20c) and said plural blood flow conduits (10a-10c) at least partially comprise gas-permeable membrane material (20a-20c), and the conduits are arranged relative to each other such as to enable transfer of oxygen from said air flow to said blood flow and transfer of carbon dioxide from said blood flow to the air flow through said membrane material, and wherein said apparatus additionally comprises (c) a sensor for sensing patient respiratory demand; and (d) a controller for controlling the rate of blood/air mass exchange by separate control of the levels of carbon dioxide and oxygen in the air flow responsive to the sensing of patient respiratory demand by the sensor, wherein the air flow inlet receives plural fluid flow feeds comprising a carbon dioxide feed and either: • an air feed; or • an oxygen feed and an inert gas feed. (a) plural blood flow conduits (10a-10c) for defining a blood flow from a blood flow inlet provided thereto; and (b) plural air flow conduits (20a-20c) for defining an air flow (22a-22c) from an air flow inlet provided thereto; (c) a sensor for sensing patient respiratory demand; and (d) a controller for controlling the rate of blood/air mass exchange by separate control of the levels of carbon dioxide and oxygen in the air flow responsive to the sensing of patient respiratory demand by the sensor, wherein the air flow inlet receives plural fluid flow feeds comprising a carbon dioxide feed and either: • an air feed; or • an oxygen feed and an inert gas feed. • an air feed; or • an oxygen feed and an inert gas feed.
A series-fed patch array antenna comprising a dielectric substrate having a ground plane; a predetermined number of patches configured on the dielectric substrate, the patches having the same shape and being connected by respective feeders (312, 321, 331, 341, 351, 361); wherein the predetermined number of patches includes: a first unit element which includes a first patch configured to create a predetermined radiation pattern and first feeders (312a, 312b) which are formed at both sides of the first patch and have the same width; a second unit element which is adjacent to the first unit element and includes a second patch also configured to create the predetermined radiation pattern and second feeders (321a, 321b) which are formed at both sides of the second patch and have the same width, wherein the width of the second feeders (321a, 321b) is different from the width of the first feeders (312a, 312b), and at least one patch disposed at an end terminal of the series-fed patch array, wherein the at least one patch has exactly one feeder connecting a first side of the at least one patch to another patch of the predetermined number of patches, and wherein the at least one patch has an open end on a second side opposite to the first side. a first unit element which includes a first patch configured to create a predetermined radiation pattern and first feeders (312a, 312b) which are formed at both sides of the first patch and have the same width; a second unit element which is adjacent to the first unit element and includes a second patch also configured to create the predetermined radiation pattern and second feeders (321a, 321b) which are formed at both sides of the second patch and have the same width, wherein the width of the second feeders (321a, 321b) is different from the width of the first feeders (312a, 312b), and at least one patch disposed at an end terminal of the series-fed patch array, wherein the at least one patch has exactly one feeder connecting a first side of the at least one patch to another patch of the predetermined number of patches, and wherein the at least one patch has an open end on a second side opposite to the first side.
A corrugated radio frequency ablation catheter having a wall-attaching adjustment wire, provided with a strip-shaped connecting catheter, an electrode frame provided at the front extremity of the connecting catheter, and a control handle provided at the rear extremity of the connecting catheter; characterized in that: the electrode frame is a corrugated electrode frame consisting of multiple corrugations, where multiple electrodes are distributed on the corrugations; each corrugation is in the shape of a fold line composed of several straight line segments, or each corrugation is composed of several curve segments, or each corrugation is composed of several curves and straight lines; the rear section of the wall-attaching adjustment wire is slidably provided within one lumen of the connecting catheter and is connected at the rear extremity onto a control element provided on the control handle or connected onto a control element provided outside of the control handle; the front section of the wall-attaching adjustment wire protrudes to the outside of the electrode frame and either runs through one or more holes provided on the corrugations or runs around the multiple corrugations, and then the front extremity returns to the interior of the electrode frame to be fixed. the electrode frame is a corrugated electrode frame consisting of multiple corrugations, where multiple electrodes are distributed on the corrugations; each corrugation is in the shape of a fold line composed of several straight line segments, or each corrugation is composed of several curve segments, or each corrugation is composed of several curves and straight lines; the rear section of the wall-attaching adjustment wire is slidably provided within one lumen of the connecting catheter and is connected at the rear extremity onto a control element provided on the control handle or connected onto a control element provided outside of the control handle; the front section of the wall-attaching adjustment wire protrudes to the outside of the electrode frame and either runs through one or more holes provided on the corrugations or runs around the multiple corrugations, and then the front extremity returns to the interior of the electrode frame to be fixed.
A method for making a heterophasic polymer, the method comprising: a. contacting a single-site catalyst precursor, an activator, and a support to produce a catalyst system, wherein the support comprises silica and is characterized by an average surface area of from 400 m 2 /g to 800 m 2 /g, as determined by the Brunauer-Emmett-Teller method using adsorption-desorption of nitrogen; b. contacting a monomer and optionally a comonomer in at least one gas or slurry phase reactor with the catalyst system under polymerization conditions comprising a first molar ratio of monomer to comonomer of from 90:10 to 100:0, to produce a porous matrix phase comprising a random statistical distribution of comonomer units; c. adjusting, in the presence of the matrix phase, the polymerization conditions to a second molar ratio of monomer to comonomer of from 90:10 to 10:90 to produce a fill phase at least partially filling pores in the matrix phase; and d. recovering a reactor effluent comprising a granular heterophasic polymer, wherein the matrix phase is characterized by a porosity, as determined by mercury intrusion porosimetry, of at least 20%. a. contacting a single-site catalyst precursor, an activator, and a support to produce a catalyst system, wherein the support comprises silica and is characterized by an average surface area of from 400 m 2 /g to 800 m 2 /g, as determined by the Brunauer-Emmett-Teller method using adsorption-desorption of nitrogen; b. contacting a monomer and optionally a comonomer in at least one gas or slurry phase reactor with the catalyst system under polymerization conditions comprising a first molar ratio of monomer to comonomer of from 90:10 to 100:0, to produce a porous matrix phase comprising a random statistical distribution of comonomer units; c. adjusting, in the presence of the matrix phase, the polymerization conditions to a second molar ratio of monomer to comonomer of from 90:10 to 10:90 to produce a fill phase at least partially filling pores in the matrix phase; and d. recovering a reactor effluent comprising a granular heterophasic polymer,
A composition for treating sensitive teeth comprising: i. from 0.1% to 3% of at least one potassium salt of a C 2 - C 5 diacid, triacid, or tetraacid; ii. at least one vanilla flavor extract, wherein the vanilla flavor extract comprises ethyl vanillin; iii. from 0.001% to 0.25% of menthol or a derivative thereof; and iv. at least one orally acceptable solvent; wherein the total amount of C 2 - C 5 diacid, triacid, or tetraacid salts is from 0.1% to 3%; and wherein the composition is a mouthwash or mouthrinse and comprises up to 1% v/v of the total composition of C 2 -C 4 monohydric alcohols. i. from 0.1% to 3% of at least one potassium salt of a C 2 - C 5 diacid, triacid, or tetraacid; ii. at least one vanilla flavor extract, wherein the vanilla flavor extract comprises ethyl vanillin; iii. from 0.001% to 0.25% of menthol or a derivative thereof; and iv. at least one orally acceptable solvent;
A micro check valve for controlling flow of a liquid, comprising: a valve seat comprised of a substrate material; a valve cap disposed on the valve seat, a space being defined between the valve seat and the valve cap; and a floating member movable in the space between the valve seat and the valve cap by application of pressure on the floating member by the liquid to passively control flow of the liquid through the valve seat and the valve cap; characterized in that the valve seat comprises a multi- level valve seat having a first surface at a first level and a second surface at a second level below the first level, the valve cap being disposed on the first surface.
A surgical fastener comprising: a coil body including a plurality of coil windings, the coil body having a proximal end and a distal end; and a separate head attached to the proximal end of the coil body, the head including one or more external threads, the one or more external threads having at least one combined turn adapted to engage with a corresponding internal thread of a delivery device, the head further including a non-circular through hole adapted to receive a rod therethrough to guide and drive the surgical fastener from the delivery device. a coil body including a plurality of coil windings, the coil body having a proximal end and a distal end; and a separate head attached to the proximal end of the coil body, the head including one or more external threads, the one or more external threads having at least one combined turn adapted to engage with a corresponding internal thread of a delivery device, the head further including a non-circular through hole adapted to receive a rod therethrough to guide and drive the surgical fastener from the delivery device.
A method for device-to-device, D2D, communication in a wireless communication network, the method comprising: receiving, from a user equipment, UE, associated with a base station, BS, at least one D2D synchronization signal, D2DSS, comprising a D2DSS for a communication or a D2DSS for a discovery; determining at least one receive, RX, resource pool configured by the BS based on the at least one D2DSS; and monitoring a D2D discovery signal or a D2D communication signal transmitted from the UE based on the at least one RX resource pool, wherein, for each discovery transmission pool, the D2DSS for a discovery is received from the UE in a subframe that precedes and, in time domain, is nearest to the first subframe of a discovery transmission pool, in case the UE is associated with a discovery. receiving, from a user equipment, UE, associated with a base station, BS, at least one D2D synchronization signal, D2DSS, comprising a D2DSS for a communication or a D2DSS for a discovery; determining at least one receive, RX, resource pool configured by the BS based on the at least one D2DSS; and monitoring a D2D discovery signal or a D2D communication signal transmitted from the UE based on the at least one RX resource pool, wherein, for each discovery transmission pool, the D2DSS for a discovery is received from the UE in a subframe that precedes and, in time domain, is nearest to the first subframe of a discovery transmission pool, in case the UE is associated with a discovery.
A control system for an optical coherence tomography imaging system for real-time imaging of a subject, the subject including a tissue material of interest, the control system being configured to: control the optical coherence tomography imaging system to scan the subject by means of optical coherence tomography for acquiring intensity scan data, and process the intensity scan data to provide image data to be visualized on display means, the control system being characterized in that for a selected range (R S) of intensity, correlated to the tissue material of interest, the image data is determined based on a selected conversion scale (S S) that is different from a conversion scale (S O) for intensity outside the selected range (R S). control the optical coherence tomography imaging system to scan the subject by means of optical coherence tomography for acquiring intensity scan data, and process the intensity scan data to provide image data to be visualized on display means, the control system being characterized in that for a selected range (R S) of intensity, correlated to the tissue material of interest, the image data is determined based on a selected conversion scale (S S) that is different from a conversion scale (S O) for intensity outside the selected range (R S).
Rolling device comprising: a stand, at least two rolls, which are mounted on the stand by means of chocks and are displaceable relative to one another in axial direction, and at least one axial displacing device, which is associated with a chock of at least one of the rolls and can act on this chock, wherein the axial displacing device comprises a fixed block of multi-part construction, at least one displaceable bending block (112, 113) and at least one displacing cylinder, which is associated with the bending block (112, 113) and by which the bending block is displaceable relative to the fixed block, characterised in that the fixed block comprises a central displacing bracket and separately therefrom two separate holding strips (117, 118), which are arranged adjacent to the displacing bracket respectively above and below the bracket and are mounted on roll housings of the stand, wherein the central displacing bracket is constructed as an individual part. a stand, at least two rolls, which are mounted on the stand by means of chocks and are displaceable relative to one another in axial direction, and at least one axial displacing device, which is associated with a chock of at least one of the rolls and can act on this chock, wherein the axial displacing device comprises a fixed block of multi-part construction, at least one displaceable bending block (112, 113) and at least one displacing cylinder, which is associated with the bending block (112, 113) and by which the bending block is displaceable relative to the fixed block, characterised in that the fixed block comprises a central displacing bracket and separately therefrom two separate holding strips (117, 118), which are arranged adjacent to the displacing bracket respectively above and below the bracket and are mounted on roll housings of the stand, wherein the central displacing bracket is constructed as an individual part.
A supplier management system of a supplier of an optical network terminal, the supplier management system comprising means for performing a method comprising: acquiring (310; 410) a serial number of the optical network terminal; performing (311; 411) a pre-provisioning to the optical network terminal; storing (311; 411) the acquired serial number in a preregistration database in association with a user service profile to be activated for the user of the optical network terminal; receiving (326B; 426), from an operator management system of a network operator of the optical network, upon connection of the optical network terminal to an optical network, a notification including a serial number of the optical network terminal; retrieving (327B; 427) from the preregistration database on the basis of the received serial number, the user service profile to be activated; triggering (327B; 427) transport layer service provisioning for the optical network terminal on the basis of the retrieved user service profile. acquiring (310; 410) a serial number of the optical network terminal; performing (311; 411) a pre-provisioning to the optical network terminal; storing (311; 411) the acquired serial number in a preregistration database in association with a user service profile to be activated for the user of the optical network terminal; receiving (326B; 426), from an operator management system of a network operator of the optical network, upon connection of the optical network terminal to an optical network, a notification including a serial number of the optical network terminal; retrieving (327B; 427) from the preregistration database on the basis of the received serial number, the user service profile to be activated; triggering (327B; 427) transport layer service provisioning for the optical network terminal on the basis of the retrieved user service profile.
A method of controlling a system for generating electricity from the exhaust gas flow from an internal combustion engine, wherein the system comprises: a turbine to be driven by the exhaust gas flow; an electricity generator to be driven by the turbine; and a bypass path that enables exhaust gas flow from the engine to bypass the turbine, wherein the method comprises: adjusting the electric current output from the generator in response to the speed of rotation of the turbine so as to seek to maintain the speed of rotation of the turbine at or below a first set speed, provided that the electric current output of the generator does not exceed a current limit; and at least in the case that the electric current output of the generator reaches or exceeds the current limit, adjusting the relative proportions of (a) exhaust gas flow through the turbine and (b) exhaust gas flow through the bypass path, in response to the speed of rotation of the turbine so as to seek to maintain the speed of rotation of the turbine at or below a second set speed, the second set speed being higher than the first set speed. adjusting the electric current output from the generator in response to the speed of rotation of the turbine so as to seek to maintain the speed of rotation of the turbine at or below a first set speed, provided that the electric current output of the generator does not exceed a current limit; and at least in the case that the electric current output of the generator reaches or exceeds the current limit, adjusting the relative proportions of (a) exhaust gas flow through the turbine and (b) exhaust gas flow through the bypass path, in response to the speed of rotation of the turbine so as to seek to maintain the speed of rotation of the turbine at or below a second set speed, the second set speed being higher than the first set speed.