mhurhangee/patent-ind-claim-en huggingface dataset:
Method for carbon dioxide utilization by means of an electrolysis system, - wherein an electrolyte and carbon dioxide (CO 2 ) are passed in front of a cathode (K) through a cathode chamber (KR), - wherein the cathode (K) comprises an electrode and/or catalyst material with which carbon dioxide (CO 2 ) is reduced at the cathode (K) and at least one hydrocarbon compound or carbon monoxide (CO) is generated as electrolysis product and also at least one formate is generated as electrolysis byproduct, and - wherein electrolysis byproducts are removed from the electrolyte/electrolysis product mixture by means of a catalytic filter system which is immobilized at least partly on the cathode surface and is not electroreductively catalytically active, said catalytic filter system comprising a functionalized complex or a functionalized support material which catalyzes a cleavage reaction of formates to hydrogen (H 2 ) and carbon dioxide (CO 2 ) or to water (H 2 O) and carbon monoxide (CO). - wherein an electrolyte and carbon dioxide (CO 2 ) are passed in front of a cathode (K) through a cathode chamber (KR), - wherein the cathode (K) comprises an electrode and/or catalyst material with which carbon dioxide (CO 2 ) is reduced at the cathode (K) and at least one hydrocarbon compound or carbon monoxide (CO) is generated as electrolysis product and also at least one formate is generated as electrolysis byproduct, and - wherein electrolysis byproducts are removed from the electrolyte/electrolysis product mixture by means of a catalytic filter system which is immobilized at least partly on the cathode surface and is not electroreductively catalytically active, said catalytic filter system comprising a functionalized complex or a functionalized support material which catalyzes a cleavage reaction of formates to hydrogen (H 2 ) and carbon dioxide (CO 2 ) or to water (H 2 O) and carbon monoxide (CO).
A method for generating an image that depicts a mechanical property in a tissue of a subject, the steps of the method comprising: (a) providing to a computer system, displacement data acquired with a magnetic resonance imaging (MRI) system and depicting displacements caused in a subject by vibratory motion applied to the subject while the data were acquired with the MRI system; (b) providing to the computer system, training data representative of displacements caused by vibratory motion propagating in a medium; (c) constructing a neural network with the computer system; (d) training the neural network on the training data using the computer system, such that the trained neural network is configured to perform an inversion of displacement data and to generate an estimate of the mechanical property; and (e) generating an image that depicts said mechanical property in the tissue of the subject by inputting the displacement data to the trained neural network, generating output as the image that depicts the mechanical property, wherein the mechanical property comprises one of stiffness, storage modulus, loss modulus, damping ratio, or a poroelastic parameter. (a) providing to a computer system, displacement data acquired with a magnetic resonance imaging (MRI) system and depicting displacements caused in a subject by vibratory motion applied to the subject while the data were acquired with the MRI system; (b) providing to the computer system, training data representative of displacements caused by vibratory motion propagating in a medium; (c) constructing a neural network with the computer system; (d) training the neural network on the training data using the computer system, such that the trained neural network is configured to perform an inversion of displacement data and to generate an estimate of the mechanical property; and (e) generating an image that depicts said mechanical property in the tissue of the subject by inputting the displacement data to the trained neural network, generating output as the image that depicts the mechanical property, wherein the mechanical property comprises one of stiffness, storage modulus, loss modulus, damping ratio, or a poroelastic parameter.
A medical device for obtaining a material sample from a material, the medical device comprising: a first member comprising a receptacle ; a second member having a hollow region for accommodating at least a portion of the first member such that the at least a portion of the first member is movable within the second member and having an aperture through which in use the material sample is received, the second member further comprising an inlet that is transmissive for at least electromagnetic radiation that can be used to determine information in relation to the material, the aperture and the inlet being spaced apart from each other; an optical element arranged to receive the electromagnetic radiation; characterized in that the inlet is located at a side portion of a distal end of the second member and the first member is rotatable within the second member between an imaging configuration in which the optical element receives the electromagnetic radiation through the inlet , and a sampling configuration in which the material sample is received through the aperture , such that when the first member is in the imaging configuration, a portion of the second member covers the receptacle of the first member , and when the first member is in the a sampling configuration, and material sample is received through the aperture , the material sample can be obtained by rotating the first member and the second member relative to each other. a first member comprising a receptacle ; a second member having a hollow region for accommodating at least a portion of the first member such that the at least a portion of the first member is movable within the second member and having an aperture through which in use the material sample is received, the second member further comprising an inlet that is transmissive for at least electromagnetic radiation that can be used to determine information in relation to the material, the aperture and the inlet being spaced apart from each other; an optical element arranged to receive the electromagnetic radiation; characterized in that the inlet is located at a side portion of a distal end of the second member and the first member is rotatable within the second member between an imaging configuration in which the optical element receives the electromagnetic radiation through the inlet , and a sampling configuration in which the material sample is received through the aperture , such that when the first member is in the imaging configuration, a portion of the second member covers the receptacle of the first member , and when the first member is in the a sampling configuration, and material sample is received through the aperture , the material sample can be obtained by rotating the first member and the second member relative to each other.
A seismic isolation assembly comprising: a first support plate configured for fixed attachment to a base; a second support plate disposed in parallel and substantially centered relation with the first support plate and configured for fixed attachment to a structure and in which a spacing is defined between the first and second support plates ; a plurality of wire rope isolators fixedly mounted in spaced relation between the first support plate and the second support plate , each wire rope isolator having an upper mounting block , a lower mounting block , and a plurality of wire coils introduced through lateral holes formed in each of the upper and lower mounting blocks , each wire rope isolator further having a primary axis passing through the centers of the wire coils , parallel to the planes of the first and second support plates ; and a plurality of sets of linear dampers , each linear damper including a first end attached to an upper surface of the first support plate and an opposing second end attached to the second support plate , and in which each set of linear dampers is disposed between adjacently spaced wire rope isolators , with each linear damper being inwardly mounted from the first support plate to the second support plate and forming an acute angle relative to a plane of said first support plate , the seismic isolation assembly characterized in that : the linear dampers and the wire rope isolators are configured to dampen applied loads simultaneously. a first support plate configured for fixed attachment to a base; a second support plate disposed in parallel and substantially centered relation with the first support plate and configured for fixed attachment to a structure and in which a spacing is defined between the first and second support plates ; a plurality of wire rope isolators fixedly mounted in spaced relation between the first support plate and the second support plate , each wire rope isolator having an upper mounting block , a lower mounting block , and a plurality of wire coils introduced through lateral holes formed in each of the upper and lower mounting blocks , each wire rope isolator further having a primary axis passing through the centers of the wire coils , parallel to the planes of the first and second support plates ; and a plurality of sets of linear dampers , each linear damper including a first end attached to an upper surface of the first support plate and an opposing second end attached to the second support plate , and in which each set of linear dampers is disposed between adjacently spaced wire rope isolators , with each linear damper being inwardly mounted from the first support plate to the second support plate and forming an acute angle relative to a plane of said first support plate , the seismic isolation assembly characterized in that : the linear dampers and the wire rope isolators are configured to dampen applied loads simultaneously.
A method performed by a wireless device configured for use in a wireless communication system , the method comprising: determining that an uplink control channel resource for a multi-slot uplink control channel transmission overlaps in time with an uplink control channel resource for a single-slot uplink control channel transmission in a slot ; deciding , for the slot , either to drop whichever of the multi-slot uplink control channel transmission and the single-slot uplink control channel transmission carries uplink control information of a lower priority or to drop the single-slot uplink control channel transmission , depending on whether the multi-slot uplink control channel transmission and the single-slot uplink control channel transmission carry uplink control information of different priorities or the same priority, respectively and dropping the single-slot uplink control channel transmission or the multi-slot uplink control channel transmission in the slot , according to said deciding. determining that an uplink control channel resource for a multi-slot uplink control channel transmission overlaps in time with an uplink control channel resource for a single-slot uplink control channel transmission in a slot ; deciding , for the slot , either to drop whichever of the multi-slot uplink control channel transmission and the single-slot uplink control channel transmission carries uplink control information of a lower priority or to drop the single-slot uplink control channel transmission , either to drop whichever of the multi-slot uplink control channel transmission and the single-slot uplink control channel transmission carries uplink control information of a lower priority or to drop the single-slot uplink control channel transmission , depending on whether the multi-slot uplink control channel transmission and the single-slot uplink control channel transmission carry uplink control information of different priorities or the same priority, respectively and dropping the single-slot uplink control channel transmission or the multi-slot uplink control channel transmission in the slot , according to said deciding.
A surgical system comprising: an overtube that guides an insertion part of a medical instrument, which is to be inserted into a body cavity, into the body cavity; a sheathing tube that is sheathed to the overtube and passes through a body wall so as to be inserted into the body cavity; a syringe that is used in combination with the overtube and ejects and sucks a fluid from a nozzle ; a tube that has one end connected to the overtube and the other end connected to the nozzle ; an inner needle that is inserted into the overtube , the inner needle puncturing the body wall in a state of being combined with the overtube ; a storage case that has individual storage parts for individually storing the overtube , the sheathing tube , the syringe , the tube , and the inner needle , respectively; a proximal end cap part that is attached to a proximal end side of the overtube ; and a strain relief whose distal end part is attached to the proximal end cap part , and through which the fluid ejected and sucked by the syringe can flow, wherein the storage case fixes a first instrument, which is any one of the overtube , the sheathing tube , the syringe , the tube , or the inner needle , to the individual storage part corresponding to the first instrument by using at least one of second instruments which are other instruments stored in the individual storage parts, and a proximal end part of the stain relief is curved with respect to the distal end part of the strain relief . an overtube that guides an insertion part of a medical instrument, which is to be inserted into a body cavity, into the body cavity; a sheathing tube that is sheathed to the overtube and passes through a body wall so as to be inserted into the body cavity; a syringe that is used in combination with the overtube and ejects and sucks a fluid from a nozzle ; a tube that has one end connected to the overtube and the other end connected to the nozzle ; an inner needle that is inserted into the overtube , the inner needle puncturing the body wall in a state of being combined with the overtube ; a storage case that has individual storage parts for individually storing the overtube , the sheathing tube , the syringe , the tube , and the inner needle , respectively; a proximal end cap part that is attached to a proximal end side of the overtube ; and a strain relief whose distal end part is attached to the proximal end cap part , and through which the fluid ejected and sucked by the syringe can flow, wherein the storage case fixes a first instrument, which is any one of the overtube , the sheathing tube , the syringe , the tube , or the inner needle , to the individual storage part corresponding to the first instrument by using at least one of second instruments which are other instruments stored in the individual storage parts, and a proximal end part of the stain relief is curved with respect to the distal end part of the strain relief .
A surgical apparatus comprising: a body portion having a proximal end and a distal end and including a connection assembly supported on the proximal end; a tool assembly supported on a distal end of the body portion and being articulable relative to the body portion, the tool assembly including an identification assembly ; and an electrical conductor extending from the connection assembly to the identification assembly, the electrical conductor including a strain relief portion for accommodating the articulation of the tool assembly relative to the body portion; wherein the strain relief portion includes a plurality of coils ("c"). a body portion having a proximal end and a distal end and including a connection assembly supported on the proximal end; a tool assembly supported on a distal end of the body portion and being articulable relative to the body portion, the tool assembly including an identification assembly ; and an electrical conductor extending from the connection assembly to the identification assembly, the electrical conductor including a strain relief portion for accommodating the articulation of the tool assembly relative to the body portion; wherein the strain relief portion includes a plurality of coils ("c").
Crystalline Form 2 of Ixazomib citrate, which is substantially free of form 1 of Ixazomib citrate, and is characterized by having less than 5000 ppm of ethyl acetate, preferably less than 3000 ppm of ethyl acetate, more preferably less than 1000 ppm of ethyl acetate, most preferably less than 100 ppm of ethyl acetate; and wherein form 2 contains less than 10 wt%, less than 5 wt%, less than 2 wt%, less than 1 wt%, of crystalline Form 1 of Ixazomib Citrate, as measured by XRPD.
A method of manufacturing a solar cell, the method comprising: forming a preliminary protective film over one surface of a semiconductor substrate using a wet chemical solution, the semiconductor substrate including a base area of a second conductive type and formed of crystalline silicon, performing a heat treatment process on the preliminary protective film at a heat treatment temperature (T) of 600 degrees Celsius or more under a gas atmosphere including a halogen gas, which has a halogen element, thereby converting the preliminary protective film to a control passivation layer having a density higher than a density of the preliminary protective film , wherein the heat treatment process includes a main section, during which the heat treatment temperature (T) is maintained, a temperature increase section before the main section, during which an increase in temperature occurs from an introduction temperature (T1) to the heat treatment temperature, and a temperature reduction section after the main section, during which a reduction in temperature occurs from the heat treatment temperature to a discharge temperature (T2), wherein the introduction temperature (T1) or the discharge temperature (T2) is within a range from 400 degrees Celsius to 550 degrees Celsius and wherein the introduction temperature (T1) and the discharge temperature (T2) are lower than the heat treatment temperature (T), wherein the preliminary protective film is formed of a silicon oxide film formed by a reaction between the substrate and the wet chemical solution. forming a preliminary protective film over one surface of a semiconductor substrate using a wet chemical solution, the semiconductor substrate including a base area of a second conductive type and formed of crystalline silicon, performing a heat treatment process on the preliminary protective film at a heat treatment temperature (T) of 600 degrees Celsius or more under a gas atmosphere including a halogen gas, which has a halogen element, thereby converting the preliminary protective film to a control passivation layer having a density higher than a density of the preliminary protective film , wherein the heat treatment process includes a main section, during which the heat treatment temperature (T) is maintained, a temperature increase section before the main section, during which an increase in temperature occurs from an introduction temperature (T1) to the heat treatment temperature, and a temperature reduction section after the main section, during which a reduction in temperature occurs from the heat treatment temperature to a discharge temperature (T2), wherein the introduction temperature (T1) or the discharge temperature (T2) is within a range from 400 degrees Celsius to 550 degrees Celsius and wherein the introduction temperature (T1) and the discharge temperature (T2) are lower than the heat treatment temperature (T), wherein the preliminary protective film is formed of a silicon oxide film formed by a reaction between the substrate and the wet chemical solution.
A pack for products from the cigarette industry, having an outer pack and an inner pack , which is arranged in the outer pack such that it can be displaced in order for the pack to be opened and closed, wherein the inner pack is intended for accommodating at least one product group in the form of product contents , and wherein the inner pack is formed from a blank made of packaging material, and wherein the blank has a plurality of walls and, in a position in which the pack contents are at least partially enclosed, extends at least in part along preferably all the side surfaces of the pack contents , wherein in the position in which the pack contents are at least partially enclosed, at least one end wall of the blank of the inner pack is supported by at least one supporting element of the blank , and wherein the at least one supporting element is formed by the blank for the inner pack and is part of a wall and/or adjoins a wall, in particular is part of a side wall and/or adjoins a side wall , characterized in that the end wall is supported exclusively by abutment of the wall against the at least one supporting element and that the at least one supporting element is folded into an interior of the inner pack in an oblique direction in relation to the plane of the wall of which it is part and/or which it adjoins.
An electromagnetic radiation steering mechanism configured to steer electromagnetic radiation to address a specific location within a two-dimensional field of view comprising: a first optical element having an associated first actuator (A) configured to rotate the first optical element about a first rotational axis to change a first coordinate of a first steering axis in the two-dimensional field of view; a second optical element having an associated second actuator (B) configured to rotate the second optical element about a second rotational axis to change a second coordinate of a second steering axis in the two-dimensional field of view; and an electromagnetic radiation manipulator (a, b) optically disposed between the first and second optical elements , wherein a first angle is defined between the first and second rotational axes ; a second angle is defined between the first and second steering axes; and, the electromagnetic radiation manipulator (a, b) is configured to introduce a difference between the first angle and the second angle, characterized in that the electromagnetic radiation manipulator (a, b) comprises a first mirror (a) and a second mirror (b) and wherein the first mirror (a) and the second mirror (b) are fixed with respect to each other. a first optical element having an associated first actuator (A) configured to rotate the first optical element about a first rotational axis to change a first coordinate of a first steering axis in the two-dimensional field of view; a second optical element having an associated second actuator (B) configured to rotate the second optical element about a second rotational axis to change a second coordinate of a second steering axis in the two-dimensional field of view; and an electromagnetic radiation manipulator (a, b) optically disposed between the first and second optical elements , wherein a first angle is defined between the first and second rotational axes ; a second angle is defined between the first and second steering axes; and, the electromagnetic radiation manipulator (a, b) is configured to introduce a difference between the first angle and the second angle, characterized in that the electromagnetic radiation manipulator (a, b) comprises a first mirror (a) and a second mirror (b) and wherein the first mirror (a) and the second mirror (b) are fixed with respect to each other.