mhurhangee/patent-ind-claim-en huggingface dataset:
A method of forming a compact based on a press forming method, comprising steps of: filling raw material powder in a cavity formed by an outer mold and a lower punch , or formed by an outer mold , a lower punch and a core rod , pressing the raw material between an upper punch and the lower punch so as to form a compact , and pressing the compact out of the outer mold , wherein a lubricating film of a press forming mold lubricant containing an oil as a main component is formed on at least a part of inner surface of the outer mold , or inner surface of the outer mold and outer circumferential surface of the core rod before the raw material powder is filled in the cavity , wherein the press forming mold lubricant contains a solid lubricant and an extreme-pressure agent in a mineral oil, and the raw material powder is pressed and formed into the compact so that density ratio of the compact is not less than 93 %, wherein the thickness of the lubricating film is 5 to 40 μm, and the viscosity of the press forming mold lubricant at 25 °C is 10 to 100000 mPa·s. filling raw material powder in a cavity formed by an outer mold and a lower punch , or formed by an outer mold , a lower punch and a core rod , pressing the raw material between an upper punch and the lower punch so as to form a compact , and pressing the compact out of the outer mold , wherein a lubricating film of a press forming mold lubricant containing an oil as a main component is formed on at least a part of inner surface of the outer mold , or inner surface of the outer mold and outer circumferential surface of the core rod before the raw material powder is filled in the cavity , wherein the press forming mold lubricant contains a solid lubricant and an extreme-pressure agent in a mineral oil, and the raw material powder is pressed and formed into the compact so that density ratio of the compact is not less than 93 %, wherein the thickness of the lubricating film is 5 to 40 μm, and the viscosity of the press forming mold lubricant at 25 °C is 10 to 100000 mPa·s.
A method performed by a network node in a communication system, comprising more than one search space group, wherein each search space group corresponds to a group of serving cells and comprises a plurality of configured search space sets for said group of serving cells, the method comprising: generating a scheduling downlink control information, DCI, message wherein the DCI message is scrambled using an identifier that is UE specific; and transmitting the DCI message on a downlink control channel; wherein the DCI message is configured to cause a user equipment, UE, to switch from monitoring a first search space group to monitoring a second search space group in response to successfully decoding the DCI message. generating a scheduling downlink control information, DCI, message wherein the DCI message is scrambled using an identifier that is UE specific; and transmitting the DCI message on a downlink control channel; wherein the DCI message is configured to cause a user equipment, UE, to switch from monitoring a first search space group to monitoring a second search space group in response to successfully decoding the DCI message.
A positive electrode material, comprising a substrate, wherein a general formula of the substrate is Li x Ni y Co z M k Me p O r A m , wherein 0.95≤x≤1.05, 0.5≤y≤1, 0≤z≤1, 0≤k≤1, 0≤p≤0.1, 1≤r≤5.2, 0≤m≤2, m+r≤2, M is selected from Mn and/or Al, Me is selected from one or more of Zr, Zn, Cu, Cr, Mg, Fe, V, Ti, Sr, Sb, Y, W, and Nb, and A is selected from one or more of N, F, S, and Cl; and an oxygen defect level of the positive electrode material satisfies condition and optionally condition : 1.77 ≤ OD1 ≤ 1.90, wherein OD1 = (I 101 /I 012 ) 0.5 , I 101 represents XRD diffraction peak intensity of the crystal plane of the positive electrode material in an XRD pattern, and I 012 represents diffraction peak intensity of the crystal plane of the positive electrode material in the XRD pattern; and 0.69 ≤ OD2 ≤ 0.74, wherein OD2 = (I 101 /I 104 ) 0.5 , I 101 represents the XRD diffraction peak intensity of the crystal plane of the positive electrode material in the XRD pattern, and I 104 represents diffraction peak intensity of the crystal plane of the positive electrode material in the XRD pattern. 1.77 ≤ OD1 ≤ 1.90, wherein OD1 = (I 101 /I 012 ) 0.5 , I 101 represents XRD diffraction peak intensity of the crystal plane of the positive electrode material in an XRD pattern, and I 012 represents diffraction peak intensity of the crystal plane of the positive electrode material in the XRD pattern; and 0.69 ≤ OD2 ≤ 0.74, wherein OD2 = (I 101 /I 104 ) 0.5 , I 101 represents the XRD diffraction peak intensity of the crystal plane of the positive electrode material in the XRD pattern, and I 104 represents diffraction peak intensity of the crystal plane of the positive electrode material in the XRD pattern.
A method for identifying a compound that is capable of binding to a trimeric protein that is a tumor necrosis factor (TNF) superfamily member, whereby the compound-trimer complex binds to the requisite TNF superfamily receptor and modulates the signalling of the receptor, wherein the compound is a small molecular entity with a molecular weight of 1000 Da or less, and wherein the method comprises: a) performing an assay to determine the thermal transition midpoint (T m ) of the trimeric form of the TNF superfamily member in a sample of the TNF superfamily member and the compound; comparing the T m of the trimeric form of the TNF superfamily member in the sample with a control sample in the absence of compound; and selecting a compound that increases the stability of the trimeric form of the TNF superfamily member compared to the stability of the trimeric form of the TNF superfamily member in the absence of the compound; and b) measuring the level of trimeric TNF superfamily member bound to the requisite receptor in a sample comprising the compound and comparing the level of the trimeric TNF superfamily member bound to the requisite receptor to a control sample; and c) contacting the TNF superfamily receptors with both a TNF superfamily member and a compound-trimer complex and detecting whether the test compound prevents or reduces the TNF superfamily member trimer signalling through the TNF superfamily receptor. a) performing an assay to determine the thermal transition midpoint (T m ) of the trimeric form of the TNF superfamily member in a sample of the TNF superfamily member and the compound; comparing the T m of the trimeric form of the TNF superfamily member in the sample with a control sample in the absence of compound; and selecting a compound that increases the stability of the trimeric form of the TNF superfamily member compared to the stability of the trimeric form of the TNF superfamily member in the absence of the compound; and b) measuring the level of trimeric TNF superfamily member bound to the requisite receptor in a sample comprising the compound and comparing the level of the trimeric TNF superfamily member bound to the requisite receptor to a control sample; and c) contacting the TNF superfamily receptors with both a TNF superfamily member and a compound-trimer complex and detecting whether the test compound prevents or reduces the TNF superfamily member trimer signalling through the TNF superfamily receptor.
A method of securely registering a User Equipment, UE, with an IP Multimedia Subsystem, IMS, network, the method comprising: - sending from the UE to the IMS network, a Session Initiation Protocol, SIP, REGISTER message comprising information encrypted using the public key part of a public-private key pair belonging to a controller of the IMS network acting as a Proxy Call Session Control Function, P-CSCF.; - receiving the SIP REGISTER message at the controller of the IMS network; and - decrypting the encrypted information using the private key part of the public-private key pair of the controller. - sending from the UE to the IMS network, a Session Initiation Protocol, SIP, REGISTER message comprising information encrypted using the public key part of a public-private key pair belonging to a controller of the IMS network acting as a Proxy Call Session Control Function, P-CSCF.; - receiving the SIP REGISTER message at the controller of the IMS network; and - decrypting the encrypted information using the private key part of the public-private key pair of the controller.
A method for providing an on-site service which acquires a requested service based on an on-site service system, the method comprising: step 101) considering node p i in a network as a service request accessing node, when the node p i receives a service request command r; wherein, said request command r comprises: a requested service type k r , a processing requirement σ k r of the requested service, a requested data volume ψ k r , a set time limit t k r for the node to respond the service request command; step 102) extracting service type information and QoS demand regarding a request contained in the service request command, selecting a candidate service node by a candidate service point selection module, in conjunction with a neighborhood information index table and a neighborhood node set maintained by the node p i , and then to obtain a set of candidate service nodes ∑ i r with a size of N i,r ; wherein said QoS demand comprises bandwidth and delay; step 103) selecting, according to the set time limit t k r for the node to respond the service request command, a service execution node from the candidate service nodes or the candidate service node, in accordance with a selection function; step 104) providing service directly by the current service request accessing node, if the service execution node selected in step 103) is the current service request accessing node; transmitting the service request command to a service execution node and executing the requested service by the service execution node, if the service execution node is a node from the set of candidate service nodes. step 101) considering node p i in a network as a service request accessing node, when the node p i receives a service request command r; wherein, said request command r comprises: a requested service type k r , a processing requirement σ k r of the requested service, a requested data volume ψ k r , a set time limit t k r for the node to respond the service request command; step 102) extracting service type information and QoS demand regarding a request contained in the service request command, selecting a candidate service node by a candidate service point selection module, in conjunction with a neighborhood information index table and a neighborhood node set maintained by the node p i , and then to obtain a set of candidate service nodes ∑ i r with a size of N i,r ; wherein said QoS demand comprises bandwidth and delay; step 103) selecting, according to the set time limit t k r for the node to respond the service request command, a service execution node from the candidate service nodes or the candidate service node, in accordance with a selection function; step 104) providing service directly by the current service request accessing node, if the service execution node selected in step 103) is the current service request accessing node; transmitting the service request command to a service execution node and executing the requested service by the service execution node, if the service execution node is a node from the set of candidate service nodes.
An apparatus comprising: means for receiving, by a first user equipment of the apparatus , an indication that a second user equipment of the apparatus has experienced a failure, where the first user equipment and the second user equipment are part of a same apparatus , and where the first user equipment is configured with a first primary reliability group and where the second user equipment is configured with a second primary reliability group; means for, based upon the indication, the first user equipment transmitting to a first network equipment a first signal to activate a secondary reliability group for the first user equipment ; means for receiving, by the first user equipment , a second signal to use the secondary reliability group, where the second signal is at least partially based upon the first signal transmitted from the first user equipment ; and means for, based upon receipt of the second signal, switching, by the first user equipment , from a single connectivity with the first network equipment to a multi-connectivity with at least the first network equipment and a second network equipment . means for receiving, by a first user equipment of the apparatus , an indication that a second user equipment of the apparatus has experienced a failure, where the first user equipment and the second user equipment are part of a same apparatus , and where the first user equipment is configured with a first primary reliability group and where the second user equipment is configured with a second primary reliability group; means for, based upon the indication, the first user equipment transmitting to a first network equipment a first signal to activate a secondary reliability group for the first user equipment ; means for receiving, by the first user equipment , a second signal to use the secondary reliability group, where the second signal is at least partially based upon the first signal transmitted from the first user equipment ; and means for, based upon receipt of the second signal, switching, by the first user equipment , from a single connectivity with the first network equipment to a multi-connectivity with at least the first network equipment and a second network equipment .
A fingerprint acquisition system, comprising a touch surface configured so as to provide location information (InfoLoc) for at least one contact point (PCO) of a finger having a fingerprint in contact with the touch surface, the system comprising: - a TFT panel, arranged underneath the touch surface, comprising a detection array comprising M rows at least some of which comprise detection cells (P(i,j)) for detecting an image representative of the fingerprint, a row-addressing system being integrated into the array, and configured so as to activate, row after row, the detection cells (P(i,j)) of a corresponding row in a scanning direction of the rows, - a calculation device (CALC), configured so as to receive the location information (InfoLoc), and so as to command the addressing system to address the array starting from an address range (ZA) grouping together a subset of rows from among the M rows of the array and including the rows arranged before and after the contact point (PCO) in the scanning direction of the rows of the array, characterized in that the addressing system comprises a shift register (SR) comprising M stages (ET), each of the M stages (ET) having an output connected to a corresponding row input, and an additional shift register (SSR), comprising N stages, called additional stages (ETA), where N < M, the additional shift register (SSR) being connected to the row inputs by way of the shift register (SR), each additional stage (ETA) being connected to the first stage (ET) of a group of stages (ET) of the shift register (SR) . - a TFT panel, arranged underneath the touch surface, comprising a detection array comprising M rows at least some of which comprise detection cells (P(i,j)) for detecting an image representative of the fingerprint, a row-addressing system being integrated into the array, and configured so as to activate, row after row, the detection cells (P(i,j)) of a corresponding row in a scanning direction of the rows, - a calculation device (CALC), configured so as to receive the location information (InfoLoc), and so as to command the addressing system to address the array starting from an address range (ZA) grouping together a subset of rows from among the M rows of the array and including the rows arranged before and after the contact point (PCO) in the scanning direction of the rows of the array,
An aircraft landing gear assembly , in particular for helicopters, provided with an actuating device for actuating the landing gear , from a retracted position to an extended position and vice versa, and a locking device for locking and releasing in and from said positions, the aircraft landing gear assembly being joinable to an aircraft at a respective hinge point, comprising: • a rotary actuator , which constitutes said actuating device, acting on the landing gear assembly at said hinge point, having a rotary electric motor connected to an actuating arm , for the rotation of the landing gear assembly around a respective actuation axis (R1), which is also the actuation axis of the rotary actuator, through a reduction gear group , with an interconnection so that, in case of power supply failure, the actuator is free to rotate dragged by the landing gear assembly by free fall; and • a linear actuator , which constitutes said locking device, wherein the actuation axes (R1, R2) of the rotary actuator and of the linear actuator are parallel, characterised in that said linear actuator is integral to the landing gear assembly and movable therewith, and it comprises a rotary electric motor and a cam mechanism to transform the rotary motion of the electric motor into an axial motion of a locking pin according to a respective actuation axis (R2), acting in retraction opposed to a spring which determines the extension thereof in a position for locking the landing gear assembly , wherein the rotation axis of the rotary electric motor of the linear actuator coincides with the linear actuation axis of the locking pin . • a rotary actuator , which constitutes said actuating device, acting on the landing gear assembly at said hinge point, having a rotary electric motor connected to an actuating arm , for the rotation of the landing gear assembly around a respective actuation axis (R1), which is also the actuation axis of the rotary actuator, through a reduction gear group , with an interconnection so that, in case of power supply failure, the actuator is free to rotate dragged by the landing gear assembly by free fall; and • a linear actuator , which constitutes said locking device,
Capacitive sensor , comprising a first sensor electrode and a second sensor electrode , wherein the sensor has a first switching position in which the first sensor electrode and the second sensor electrode form a capacitor, wherein the first sensor electrode is designed as a shield electrode, and wherein a capacitance change of the capacitor is detectable by a force F that can be exerted on the first sensor electrode by means of an object in contact with the first sensor electrode , and in that the sensor has a second switching position in which an electrical field can be generated at the first sensor electrode such that, when an object approaches the first sensor electrode , a capacitance change can be detected, wherein the first sensor electrode is designed as a housing having a planar housing base and a housing side which projects therefrom and depicts a housing casing , wherein the second sensor electrode is arranged within the housing, wherein the second sensor electrode is arranged on a non-conductive element , in particular a circuit board or a glass plate, and wherein the housing casing has a shoulder on which the non-conductive element is arranged.
A system for engaging tissue and fixing heart valve leaflet tissue comprising: a first fixation device for gripping a first target tissue (AL); a second fixation device (10") for gripping a second target tissue (PL), the second fixation device (10") being separate from and independently operable in relation to the first fixation device ; and a wire extending between the first fixation device and the second fixation device (10"), whereby shortening a length of the wire causes the first fixation device to be drawn towards the second fixation device (10"); wherein the wire includes a frangible portion configured to break when the wire is subjected to a particular amount of tension. a first fixation device for gripping a first target tissue (AL); a second fixation device (10") for gripping a second target tissue (PL), the second fixation device (10") being separate from and independently operable in relation to the first fixation device ; and a wire extending between the first fixation device and the second fixation device (10"), whereby shortening a length of the wire causes the first fixation device to be drawn towards the second fixation device (10"); wherein the wire includes a frangible portion configured to break when the wire is subjected to a particular amount of tension.
Linkage system for connecting an axle of an off-road vehicle to a chassis thereof, said linkage system comprising a left and a right connection elements defining respectively a lower movable connection with said axle and an upper movable connection with an intermediate element carried by said chassis , said upper and lower connections of each left and right connection elements being aligned along a respective straight line (R1, R2), said lines intersecting on a point (P), positioned above said intermediate element , said point (P) being a virtual pivoting point of roll movement of said axle , wherein said movable connections are lower and upper hinges , wherein said lower hinges allows a rotation around an axis (D) perpendicular to a longitudinal axis (C) of said axle and parallel to a longitudinal axis of said vehicle, and said upper hinges allows a rotation around an axis (E) perpendicular to a longitudinal axle (C) of said axle and parallel to a longitudinal axis of said vehicle, characterised in that said intermediate element is carried by said chassis in a movable manner and wherein said movable manner connection of said intermediate element with said chassis allows a pitch rotation of said intermediate element around a pivoting axis (B) parallel to a longitudinal axis (C) of said axle . wherein said movable connections are lower and upper hinges , wherein said lower hinges allows a rotation around an axis (D) perpendicular to a longitudinal axis (C) of said axle and parallel to a longitudinal axis of said vehicle, and said upper hinges allows a rotation around an axis (E) perpendicular to a longitudinal axle (C) of said axle and parallel to a longitudinal axis of said vehicle, characterised in that said intermediate element is carried by said chassis in a movable manner and wherein said movable manner connection of said intermediate element with said chassis allows a pitch rotation of said intermediate element around a pivoting axis (B) parallel to a longitudinal axis (C) of said axle .
A non-toxic lymphodepleting agent (NTLA) for use in a method of enhancing adoptive cellular therapy (ACT) in a patient, wherein the NTLA is dexamethasone or another glucocorticoid, the method comprising administering to the patient dexamethasone at a human equivalent dose (HED) of at least about 3 mg/kg or another glucocorticoid at an equivalent dose, wherein the method does not include the administration of a chemotherapeutic agent for a duration of 1 day or more.