mhurhangee/patent-ind-claim-en huggingface dataset:
A system for preparing a bone for a cementless joint implant, the system comprising: a computer-aided surgical system (in the following: CASS), a robotic arm , and a burring device removably coupled to the robotic arm; wherein the CASS is configured to facilitate a first bone removal operation using the burring device with a first plurality of settings; wherein the CASS is configured to adjust the first plurality of settings to a second plurality of settings; and wherein the CASS is configured to facilitate a second bone removal operation using the burring device with the second plurality of settings, characterised in that the CASS is configured to adjust the first plurality of settings to the second plurality of settings based on a distance between a current bone surface and an intended final cut plane. a computer-aided surgical system (in the following: CASS), a robotic arm , and a burring device removably coupled to the robotic arm; wherein the CASS is configured to facilitate a first bone removal operation using the burring device with a first plurality of settings; wherein the CASS is configured to adjust the first plurality of settings to a second plurality of settings; and wherein the CASS is configured to facilitate a second bone removal operation using the burring device with the second plurality of settings, characterised in that the CASS is configured to adjust the first plurality of settings to the second plurality of settings based on a distance between a current bone surface and an intended final cut plane.
Process of use in isolating rare earth metals and ancillary metal element(s) distinct from rare earth metals present in the magnetic phase of magnets or derived products, comprising at least the stages consisting in: (i) having the material forming said magnetic phase available in the form of a demagnetized powder, with a mean particle size of less than or equal to 700 μm, devoid of contamination with nonconstituent particles of said magnetic phase; (ii) dissolving said powder from stage (i) in an acid medium supplemented with at least one oxidizing agent capable of adjusting the ancillary metal element(s) to an oxidation state compatible with their consecutive precipitation in stage (iii), in the presence of hydroxide ions, at a pH strictly of less than 7; (iii) precipitating the ancillary metal element(s) in the hydroxide state via the addition, to said solution obtained on conclusion of stage (ii), of an effective amount of at least one hydroxylated base, under pH conditions favorable to the maintenance of the rare earth metal elements in the dissolved form; (iv) isolating the metal hydroxide precipitate formed on conclusion of stage (iii) and, if appropriate, recovering it; (v) precipitating the rare earth metal elements in the oxalate state from the solution depleted in, indeed even devoid of, ancillary metal element (s) and obtained on conclusion of stage (iv) via the addition, to said solution, of an effective amount of oxalic acid; and (vi) recovering said rare earth metals in the form of a precipitate of rare earth metal oxalate. (i) having the material forming said magnetic phase available in the form of a demagnetized powder, with a mean particle size of less than or equal to 700 μm, devoid of contamination with nonconstituent particles of said magnetic phase; (ii) dissolving said powder from stage (i) in an acid medium supplemented with at least one oxidizing agent capable of adjusting the ancillary metal element(s) to an oxidation state compatible with their consecutive precipitation in stage (iii), in the presence of hydroxide ions, at a pH strictly of less than 7; (iii) precipitating the ancillary metal element(s) in the hydroxide state via the addition, to said solution obtained on conclusion of stage (ii), of an effective amount of at least one hydroxylated base, under pH conditions favorable to the maintenance of the rare earth metal elements in the dissolved form; (iv) isolating the metal hydroxide precipitate formed on conclusion of stage (iii) and, if appropriate, recovering it; (v) precipitating the rare earth metal elements in the oxalate state from the solution depleted in, indeed even devoid of, ancillary metal element (s) and obtained on conclusion of stage (iv) via the addition, to said solution, of an effective amount of oxalic acid; and (vi) recovering said rare earth metals in the form of a precipitate of rare earth metal oxalate.
A composition for use in increasing cell death in a glioblastoma stem cell in a subject, the composition comprising a platelet-derived growth factor receptor alpha inhibitor and a histone lysine demethylase inhibitor, wherein the platelet-derived growth factor receptor alpha inhibitor is dasatinib, crenolanib, or a combination thereof, and the histone lysine demethylase inhibitor is GSKJ4.
A method comprising: determining, by a session management function, SMF, and based on a local configuration, a layer 2 tunneling protocol, L2TP, tunnel associated with a first protocol data unit, PDU, session of a wireless device; sending, by the SMF to a first user plane function, UPF, a request to establish the L2TP tunnel between the UPF and a L2TP network server, LNS, for the first PDU session; and receiving, by the SMF from the first UPF, a message indicating a failure of the L2TP tunnel, the message comprising a tunnel failure cause information element indicating at least one of: a L2TP tunnel failure of the L2TP tunnel; or a L2TP session failure associated with the L2TP tunnel. determining, by a session management function, SMF, and based on a local configuration, a layer 2 tunneling protocol, L2TP, tunnel associated with a first protocol data unit, PDU, session of a wireless device; sending, by the SMF to a first user plane function, UPF, a request to establish the L2TP tunnel between the UPF and a L2TP network server, LNS, for the first PDU session; and receiving, by the SMF from the first UPF, a message indicating a failure of the L2TP tunnel, the message comprising a tunnel failure cause information element indicating at least one of: a L2TP tunnel failure of the L2TP tunnel; or a L2TP session failure associated with the L2TP tunnel. a L2TP tunnel failure of the L2TP tunnel; or a L2TP session failure associated with the L2TP tunnel.
Method for calibrating a head-up display for a motor vehicle, in which a camera is positioned in a defined position in said vehicle and the head-up display projects a test image onto a windscreen of said vehicle, wherein the camera , due to the technical design of the head-up display , can only take a partial picture of the test image if it is outside an actual eyebox, characterised in that a cropping measurement is carried out, wherein a partial picture of the test image is taken from above and/or below a target eyebox and a part of the test image which is missing in the partial picture of the test image is determined by means of a computer program, wherein a relative position of the actual eyebox to the camera is determined from the determined size of that part of a predefined character or pattern or a predefined shape in the test image that is just still visible to the camera .
A field-effect transistor , comprising: a base ; a passivation layer; a gate insulating layer formed between the base and the passivation layer; a source electrode and a drain electrode ; a semiconductor layer , which is formed between at least the source electrode and the drain electrode , and is in contact with the gate insulating layer , the source electrode , and the drain electrode ; and a gate electrode , which is in contact with the gate insulating layer , and faces the semiconductor layer via the gate insulating layer , wherein the passivation layer contains a first passivation layer , which is formed of a first composite metal oxide containing Si, and an alkaline earth metal, and a second passivation layer , which is formed to be in contact with the first passivation layer , and is formed of a second composite metal oxide containing an alkaline earth metal, and a rare-earth element, wherein the first composite metal oxide further contains Al, or B, or both thereof, wherein the first passivation layer is formed on the semiconductor layer and the second passivation layer is formed on the first passivation layer . a base ; a passivation layer; a gate insulating layer formed between the base and the passivation layer; a source electrode and a drain electrode ; a semiconductor layer , which is formed between at least the source electrode and the drain electrode , and is in contact with the gate insulating layer , the source electrode , and the drain electrode ; and a gate electrode , which is in contact with the gate insulating layer , and faces the semiconductor layer via the gate insulating layer , wherein the passivation layer contains a first passivation layer , which is formed of a first composite metal oxide containing Si, and an alkaline earth metal, and a second passivation layer , which is formed to be in contact with the first passivation layer , and is formed of a second composite metal oxide containing an alkaline earth metal, and a rare-earth element,
A method for supporting handover by a target evolved Node B, eNB in a wireless communication system, the method comprising: receiving, by the target eNB from a source eNB , congestion control information about a User Equipment, UE , the UE performing handover from the source eNB to the target eNB; and performing, by the target eNB, radio access network, RAN, based congestion control on the UE by using the congestion control information, wherein the RAN based congestion control is different from a core network, CN, based congestion control, wherein the RAN based congestion control is based on a RAN that includes one or more eNBs comprising the target eNB and the source eNB, and that is present between the UE and a CN, and wherein the congestion control information includes information indicating whether the source eNB has decreased a service priority level for the UE by applying the RAN based congestion control on the UE. receiving, by the target eNB from a source eNB , congestion control information about a User Equipment, UE , the UE performing handover from the source eNB to the target eNB; and performing, by the target eNB, radio access network, RAN, based congestion control on the UE by using the congestion control information, wherein the RAN based congestion control is different from a core network, CN, based congestion control, wherein the RAN based congestion control is based on a RAN that includes one or more eNBs comprising the target eNB and the source eNB, and that is present between the UE and a CN, and wherein the congestion control information includes information indicating whether the source eNB has decreased a service priority level for the UE by applying the RAN based congestion control on the UE.
A method for analyzing a plurality of nucleic acid molecules comprising: (a) attaching a plurality of primers comprising a Primer ID to a plurality of nucleic acid molecules in a sample to generate tagged-nucleic acid templates, wherein (i) the plurality of nucleic acid molecules comprises 1.0 or more nucleic acid templates, and (ii) each tagged nucleic acid template is attached to a unique Primer ID; (b) amplifying the tagged nucleic acid templates to produce tagged amplicons; (c) detecting the tagged amplicons, thereby analyzing the plurality of nucleic acid molecules; and (d) determining an amplification bias of the amplification reaction based on the detection of the tagged nucleic acid molecules, wherein determining the amplification bias is based on comparison of two or more ratios, wherein comparison of the two or more ratios comprises comparing a first ratio of the quantification of different Primer IDs associated with two or more types of nucleic acid molecules to a second ratio of the quantification of the total number of amplicons of two or more types of nucleic acid molecules, wherein the first ratio is based on an amount of different Primer IDs that are associated with a first type of nucleic acid molecule and an amount of different Primer IDs associated with a second type of nucleic acid molecule, wherein the second ratio is based on an amount of total amplicons that are associated with the first type of nucleic acid molecule and an amount of total amplicons that are associated with the second type of nucleic acid molecule and wherein the amplification bias is revealed by the difference in the first ratio and the second ratio. (a) attaching a plurality of primers comprising a Primer ID to a plurality of nucleic acid molecules in a sample to generate tagged-nucleic acid templates, wherein (i) the plurality of nucleic acid molecules comprises 1.0 or more nucleic acid templates, and (ii) each tagged nucleic acid template is attached to a unique Primer ID; (i) the plurality of nucleic acid molecules comprises 1.0 or more nucleic acid templates, and (ii) each tagged nucleic acid template is attached to a unique Primer ID; (b) amplifying the tagged nucleic acid templates to produce tagged amplicons; (c) detecting the tagged amplicons, thereby analyzing the plurality of nucleic acid molecules; and (d) determining an amplification bias of the amplification reaction based on the detection of the tagged nucleic acid molecules, wherein determining the amplification bias is based on comparison of two or more ratios, wherein comparison of the two or more ratios comprises comparing a first ratio of the quantification of different Primer IDs associated with two or more types of nucleic acid molecules to a second ratio of the quantification of the total number of amplicons of two or more types of nucleic acid molecules,
A method of a terminal for selecting an antenna for transmitting and receiving a signal using a millimeter wave, the method comprising: acquiring state information of the terminal from at least one sensor; selecting at least one antenna from among a plurality of antennas included in the terminal to improve communication performance, based on the state information; and performing signal transmission and reception by using the at least one antenna, characterised in that selecting the at least one antenna includes: in case that a grip sensor interrupt is occurred, acquiring grip sensor information; and selecting an antenna for the signal transmission and reception to select preferentially an antenna that physical contact is not occurred, based on the grip sensor information, in case that the grip sensor interrupt is not occurred, acquiring 6-axis sensor information; and selecting an antenna for the signal transmission and reception, based on the 6-axis sensor information, wherein the 6-axis sensor information indicates which antenna is positioned relatively above. acquiring state information of the terminal from at least one sensor; selecting at least one antenna from among a plurality of antennas included in the terminal to improve communication performance, based on the state information; and performing signal transmission and reception by using the at least one antenna, characterised in that selecting the at least one antenna includes: in case that a grip sensor interrupt is occurred, acquiring grip sensor information; and selecting an antenna for the signal transmission and reception to select preferentially an antenna that physical contact is not occurred, based on the grip sensor information, in case that the grip sensor interrupt is not occurred, acquiring 6-axis sensor information; and selecting an antenna for the signal transmission and reception, based on the 6-axis sensor information, wherein the 6-axis sensor information indicates which antenna is positioned relatively above. in case that a grip sensor interrupt is occurred, acquiring grip sensor information; and selecting an antenna for the signal transmission and reception to select preferentially an antenna that physical contact is not occurred, based on the grip sensor information, in case that the grip sensor interrupt is not occurred, acquiring 6-axis sensor information; and selecting an antenna for the signal transmission and reception, based on the 6-axis sensor information, wherein the 6-axis sensor information indicates which antenna is positioned relatively above.
Actuating device for a door-unlocking and/or door-opening mechanism , comprising at least - a housing (3.2) with a sensing unit , - an actuating element (3.1) with an actuating stroke (BH) from a rest and/or starting position (P1) into an actuated position (P2), and - at least one restoring element (3.4), which restores the actuating element (3.1) from the actuated position (P2) into the rest and/or starting position (P1), wherein the actuating element (3.1) is movably arranged in relation to the housing (3.2) and, relative to this housing (3.2), between the rest and/or starting position (P1) and the actuated position (P2), characterized in that the at least one restoring element (3.4) is arranged in at least one region between the actuating element (3.1) and the housing (3.2), wherein the restoring element (3.4) is designed to connect the actuating element (3.1) and the housing (3.2) to one another and to seal the sensing unit in the outward direction, wherein the restoring element (3.4) has an adhesively bonding, a sealing and a resilient function between the actuating element (3.1) and the housing (3.2), and wherein the restoring element (3.4) acts in the direction of restoring the actuating element (3.1) in the rest and/or starting position (P1). - a housing (3.2) with a sensing unit , - an actuating element (3.1) with an actuating stroke (BH) from a rest and/or starting position (P1) into an actuated position (P2), and - at least one restoring element (3.4), which restores the actuating element (3.1) from the actuated position (P2) into the rest and/or starting position (P1), wherein the actuating element (3.1) is movably arranged in relation to the housing (3.2) and, relative to this housing (3.2), between the rest and/or starting position (P1) and the actuated position (P2), characterized in that the at least one restoring element (3.4) is arranged in at least one region between the actuating element (3.1) and the housing (3.2), wherein the restoring element (3.4) is designed to connect the actuating element (3.1) and the housing (3.2) to one another and to seal the sensing unit in the outward direction, wherein the restoring element (3.4) has an adhesively bonding, a sealing and a resilient function between the actuating element (3.1) and the housing (3.2), and wherein the restoring element (3.4) acts in the direction of restoring the actuating element (3.1) in the rest and/or starting position (P1).
A sensor assembly for sensing a crossing of the critical point by a working fluid in a transcritical cycle (108; 608), the sensor assembly comprising: a component through which the working fluid flows, and, within a predetermined region of which the crossing of the critical point of the working fluid is desired to occur; a first conduit upstream of the component for conveying the working fluid to the component; a second conduit downstream of the component for conveying the working fluid away from the component; a first broadband acoustic sensor upstream of the component and a second broadband acoustic sensor downstream of the component, each of which are arranged to detect high-frequency sounds and low-frequency sounds caused by the crossing of the critical point; and a flow regulation device configured to regulate flow of the working fluid through the component in response to the output of one or more of the first broadband acoustic sensor and the second broadband acoustic sensor, thereby adjusting the location of the crossing of the critical point. a component through which the working fluid flows, and, within a predetermined region of which the crossing of the critical point of the working fluid is desired to occur; a first conduit upstream of the component for conveying the working fluid to the component; a second conduit downstream of the component for conveying the working fluid away from the component; a first broadband acoustic sensor upstream of the component and a second broadband acoustic sensor downstream of the component, each of which are arranged to detect high-frequency sounds and low-frequency sounds caused by the crossing of the critical point; and a flow regulation device configured to regulate flow of the working fluid through the component in response to the output of one or more of the first broadband acoustic sensor and the second broadband acoustic sensor, thereby adjusting the location of the crossing of the critical point.
A battery module (20; 100) comprising at least first and second groups of accumulators (10; 102), each comprising at least two accumulators, each accumulator comprising a first terminal (12; 104) and a second terminal (14; 106), and at least one device (30; 50; 60; 70; 80; 110; 120) of electric connection of all the first terminals of the accumulators of the first group to all the second terminals of the accumulators of the second group, the connection device comprising: an electrically-conductive element (40, 44; 72; 82; 114; 122), monoblock or comprising a plurality of parts, in contact with all the first terminals of the accumulators of the first group and with all the second terminals of the accumulators of the second group and which is not attached to the accumulators; a resiliently deformable element (44; 72; 82; 114; 124) integrated to the electrically-conductive element or in contact with the electrically-conductive element; and a guide element (32; 112) made of an electrically-insulating material capable of compressing the resiliently deformable element against the accumulators. an electrically-conductive element (40, 44; 72; 82; 114; 122), monoblock or comprising a plurality of parts, in contact with all the first terminals of the accumulators of the first group and with all the second terminals of the accumulators of the second group and which is not attached to the accumulators; a resiliently deformable element (44; 72; 82; 114; 124) integrated to the electrically-conductive element or in contact with the electrically-conductive element; and a guide element (32; 112) made of an electrically-insulating material capable of compressing the resiliently deformable element against the accumulators.
Polyurea compound preparable via reaction of a polyisocyanate with a dialkoxyaminosilane of general formula (I) R 1 (R 1 O) 2 Si(CH 2 ) m NHR 2 (I) and additionally with a trialkoxyaminosilane of general formula (II) (R 1 O) 3 Si(CH 2 ) n NHR 2 (II) where the radicals R 1 independently of one another are selected from C 1 -C 20 alkyl or C 6 -C 20 aryl, n and m are each integers between 1 and 4, the radicals R 2 independently of one another are selected from -H, C 1 -C 20 alkyl, C3-C12 cycloalkyl, and -CHR 3 CH 2 COOR 4 , the radicals R 3 independently of one another are selected from H, C 1 -C 20 alkyl and -COOR 4 , and the radicals R 4 independently of one another represent C 1 -C 20 alkyl, wherein the proportion of dialkoxyaminosilanes of general formula (I), based on the total molar amount of aminosilanes of general formulae (I) and (II), is 5 to 90 mol%. where the radicals R 1 independently of one another are selected from C 1 -C 20 alkyl or C 6 -C 20 aryl, n and m are each integers between 1 and 4, the radicals R 2 independently of one another are selected from -H, C 1 -C 20 alkyl, C3-C12 cycloalkyl, and -CHR 3 CH 2 COOR 4 , the radicals R 3 independently of one another are selected from H, C 1 -C 20 alkyl and -COOR 4 , and the radicals R 4 independently of one another represent C 1 -C 20 alkyl, wherein the proportion of dialkoxyaminosilanes of general formula (I), based on the total molar amount of aminosilanes of general formulae (I) and (II), is 5 to 90 mol%.