mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: performing, by a wireless device , a first listen-before-talk, LBT, procedure for transmission of a first preamble of a first message; performing, by the wireless device , a second LBT procedure for transmission of a first transport block of the first message; based on a clear channel indicated by one of the first LBT procedure or the second LBT procedure and a busy channel indicated by another of the first LBT procedure or the second LBT procedure, transmitting, using a transmission power, one of the first preamble or the first transport block; based on the transmission power and based on a determination that a response to the one of the first preamble or the first transport block has not been received by a time duration, determining a ramped transmission power; and transmitting, using the ramped transmission power, a second preamble of a retransmission of the first message. performing, by a wireless device , a first listen-before-talk, LBT, procedure for transmission of a first preamble of a first message; performing, by the wireless device , a second LBT procedure for transmission of a first transport block of the first message; based on a clear channel indicated by one of the first LBT procedure or the second LBT procedure and a busy channel indicated by another of the first LBT procedure or the second LBT procedure, transmitting, using a transmission power, one of the first preamble or the first transport block; based on the transmission power and based on a determination that a response to the one of the first preamble or the first transport block has not been received by a time duration, determining a ramped transmission power; and transmitting, using the ramped transmission power, a second preamble of a retransmission of the first message.
An apparatus of an evolved Node B, eNB, or a next generation Node B, gNB, comprising: one or more baseband processors to encode downlink control information, DCI, to be transmitted in a physical downlink control channel, PDCCH, to a user equipment, UE, to schedule an uplink subframe including information for a partial uplink subframe, and to decode the scheduled uplink subframe from a physical uplink shared channel, PUSCH, received from the UE ; and a memory to store the information for the partial uplink subframe, characterised in that the DCI comprises format 0A/4A or format 0B/4B, wherein DCI format 0A/4A schedules a single subframe and indicates whether the partial uplink subframe is located at the start of the single subframe or located at the end of the single subframe and wherein DCI format 0B/4B schedules multiple consecutive subframes and indicates whether the partial subframe is located at the start of the multiple consecutive subframes or located at the end of the multiple consecutive subframes. one or more baseband processors to encode downlink control information, DCI, to be transmitted in a physical downlink control channel, PDCCH, to a user equipment, UE, to schedule an uplink subframe including information for a partial uplink subframe, and to decode the scheduled uplink subframe from a physical uplink shared channel, PUSCH, received from the UE ; and a memory to store the information for the partial uplink subframe, characterised in that the DCI comprises format 0A/4A or format 0B/4B, wherein DCI format 0A/4A schedules a single subframe and indicates whether the partial uplink subframe is located at the start of the single subframe or located at the end of the single subframe and wherein DCI format 0B/4B schedules multiple consecutive subframes and indicates whether the partial subframe is located at the start of the multiple consecutive subframes or located at the end of the multiple consecutive subframes.
An antimicrobial medical device comprising: - a substrate comprising a metal surface, said metal surface comprising atoms of at least one of a metal or metal alloy comprising one or more of stainless steel, cobalt, and titanium; - on the metal surface, a first antimicrobial oxide layer comprising atoms of the metal or metal alloy and atoms of an antimicrobial metal selected from the group consisting of silver, copper, and zinc, and combinations thereof, the atoms of antimicrobial metal being present in the first antimicrobial oxide layer in a first concentration; said first antimicrobial oxide layer having a thickness of 100 nm to 800 nm; and - on the first antimicrobial oxide layer, positioned in a direction opposite that of the metal surface, a second antimicrobial oxide layer comprising atoms of an antimicrobial metal selected from the group consisting of silver, copper, and zinc, and combinations thereof, the atoms of antimicrobial metal being present in the second antimicrobial oxide layer in a second concentration, said second antimicrobial oxide layer having a thickness of 100 nm to 800 nm, wherein the first concentration is not equal to the second concentration, wherein the device comprises a plurality of nano-scale surface features, and the first and/or second antimicrobial oxide layer is contained within the plurality of nano-scale surface features, and wherein during formation of the device, anodization takes place both before soaking to form the first antimicrobial layer and before soaking to form the second antimicrobial layer. - a substrate comprising a metal surface, said metal surface comprising atoms of at least one of a metal or metal alloy comprising one or more of stainless steel, cobalt, and titanium; - on the metal surface, a first antimicrobial oxide layer comprising atoms of the metal or metal alloy and atoms of an antimicrobial metal selected from the group consisting of silver, copper, and zinc, and combinations thereof, the atoms of antimicrobial metal being present in the first antimicrobial oxide layer in a first concentration; said first antimicrobial oxide layer having a thickness of 100 nm to 800 nm; and - on the first antimicrobial oxide layer, positioned in a direction opposite that of the metal surface, a second antimicrobial oxide layer comprising atoms of an antimicrobial metal selected from the group consisting of silver, copper, and zinc, and combinations thereof, the atoms of antimicrobial metal being present in the second antimicrobial oxide layer in a second concentration, said second antimicrobial oxide layer having a thickness of 100 nm to 800 nm, wherein the first concentration is not equal to the second concentration, wherein the device comprises a plurality of nano-scale surface features, and the first and/or second antimicrobial oxide layer is contained within the plurality of nano-scale surface features, and wherein during formation of the device, anodization takes place both before soaking to form the first antimicrobial layer and before soaking to form the second antimicrobial layer.
A method of clock transmission between networks, comprising: acquiring a first information corresponding to a clock class of a first clock, wherein the first information is based on a first protocol, and the first clock is transmitted by a first network equipment; acquiring a second information corresponding to a clock class of a second clock, wherein the second information is based on a second protocol, and the second clock is transmitted by a second network equipment; converting the first information into a second information corresponding to the clock class of the first clock; performing , according to the second information corresponding to the clock class of the first clock and the second information corresponding to the clock class of the second clock, a source selection on the first clock and the second clock; and transmitting a second information corresponding to a clock class of the selected clock source; wherein the first information is a precision time protocol, PTP, clock class information, and the second information is a synchronous status message, SSM. acquiring a first information corresponding to a clock class of a first clock, wherein the first information is based on a first protocol, and the first clock is transmitted by a first network equipment; acquiring a second information corresponding to a clock class of a second clock, wherein the second information is based on a second protocol, and the second clock is transmitted by a second network equipment; converting the first information into a second information corresponding to the clock class of the first clock; performing , according to the second information corresponding to the clock class of the first clock and the second information corresponding to the clock class of the second clock, a source selection on the first clock and the second clock; and transmitting a second information corresponding to a clock class of the selected clock source; wherein the first information is a precision time protocol, PTP, clock class information, and the second information is a synchronous status message, SSM.
A composite drill pipe (100; 200; 300) comprising: an inner pipe having a first diameter, the inner pipe forming an inner flow channel ; an outer pipe having a second diameter greater than the first diameter, wherein the inner pipe and the outer pipe have a common axis ; a plurality of outer flow channels formed between the inner pipe and the outer pipe; an end coupling comprising a plurality of protruding elements , the end coupling inserted into one end of the drill pipe such that the plurality of protruding elements of the end coupling are inserted in the plurality of flow channels, thereby forming a coupling interface between the drill pipe and the end coupling; and a multi-directional reinforcement provided over an outer diameter of the outer pipe and at least a portion of the end coupling adjoining the drill pipe, thereby integrally connecting the drill pipe and the end coupling. an inner pipe having a first diameter, the inner pipe forming an inner flow channel ; an outer pipe having a second diameter greater than the first diameter, wherein the inner pipe and the outer pipe have a common axis ; a plurality of outer flow channels formed between the inner pipe and the outer pipe; an end coupling comprising a plurality of protruding elements , the end coupling inserted into one end of the drill pipe such that the plurality of protruding elements of the end coupling are inserted in the plurality of flow channels, thereby forming a coupling interface between the drill pipe and the end coupling; and a multi-directional reinforcement provided over an outer diameter of the outer pipe and at least a portion of the end coupling adjoining the drill pipe, thereby integrally connecting the drill pipe and the end coupling.
A method comprising: receiving a request for removing an object; and in response to receiving the removal request: locating a first cache server corresponding to the object and rendering the corresponding first cache server to be a present cache server; determining whether the present cache server is in an active status and an active period of the present cache server is greater than an expiration period associated with the object, wherein the active status designates the present cache server being a server to which all requests for the object are sent; and in response to determining that that the present cache server is in the active status and the active period of the present cache server is greater than the expiration period associated with the object, removing the object from the present cache server and ending the method. receiving a request for removing an object; and in response to receiving the removal request: locating a first cache server corresponding to the object and rendering the corresponding first cache server to be a present cache server; determining whether the present cache server is in an active status and an active period of the present cache server is greater than an expiration period associated with the object, wherein the active status designates the present cache server being a server to which all requests for the object are sent; and in response to determining that that the present cache server is in the active status and the active period of the present cache server is greater than the expiration period associated with the object, removing the object from the present cache server and ending the method. locating a first cache server corresponding to the object and rendering the corresponding first cache server to be a present cache server; determining whether the present cache server is in an active status and an active period of the present cache server is greater than an expiration period associated with the object, wherein the active status designates the present cache server being a server to which all requests for the object are sent; and in response to determining that that the present cache server is in the active status and the active period of the present cache server is greater than the expiration period associated with the object, removing the object from the present cache server and ending the method.
A coating which is especially suitable for being coated on sand moulds and/or cores used for iron and steel casting processes comprising at least one carrier liquid; at least one refractory material in the form of a powder wherein said refractory material has a particle size of 75 to 150μm; at least one rheology agent; and at least one suspension agent characterized in that the refractory material comprises corundum within the range of 15% to 45% by weight with respect to the total weight of the coating, and alumina silicate within the range of 13-43% by weight with respect to the total weight of the coating.
A compound selected from the group consisting of: mixtures thereof and /or their pharmaceutically acceptable salts, wherein Lys(Ac) is (N-acetyl)lysine, Lys(Z) is (N-benzyloxycarbonyl)lysine, Lys(Tfa) is (N-trifluoroacetyl)lysine, Lys(2-Cl-Z) is (N-2-chlorobenzyloxycarbonyl)lysine, Lys(For) is (N-formyl)lysine, Lys(i-Pro) is (N-isopropyl)lysine, Lys(Alloc) is (N-allyloxycarbonyl)lysine, Lys(Dde) is (N-1-(4,4-dimethyl-2,6-dioxocyclohexyl-1-ylidene)ethyl)lysine and Lys(Palm) is (N-palmitoyl)lysine.
A method comprising: receiving an indication of an anticipated utilization of a patient monitoring device for which the patient monitoring device is not configured ; wherein receiving the indication of the anticipated utilization of the patient monitoring device comprises receiving an indication of an environment in which the patient monitoring device is located and an indication of a body part of a patient to which the patient monitoring device is attached; determining whether to differently configure the patient monitoring device in accordance with the anticipated utilization of the patient monitoring device for which the patient monitoring device is not configured ; accessing device configuration information relating to the indication of the environment in which the patient monitoring device is located and the body part of the patient to which the patient monitoring device is attached ; and causing provision of the device configuration information relating to the configuration associated with the anticipated utilization of the patient monitoring device . receiving an indication of an anticipated utilization of a patient monitoring device for which the patient monitoring device is not configured ; wherein receiving the indication of the anticipated utilization of the patient monitoring device comprises receiving an indication of an environment in which the patient monitoring device is located and an indication of a body part of a patient to which the patient monitoring device is attached; determining whether to differently configure the patient monitoring device in accordance with the anticipated utilization of the patient monitoring device for which the patient monitoring device is not configured ; accessing device configuration information relating to the indication of the environment in which the patient monitoring device is located and the body part of the patient to which the patient monitoring device is attached ; and causing provision of the device configuration information relating to the configuration associated with the anticipated utilization of the patient monitoring device .
A mechanism for connecting and disconnecting two parts, the mechanism comprising: a first component (4/26,100) having a first magnetic part for integration with or attachment to a first of said parts; a second component for integration with or attachment to a second of said parts; a third component (3/27, 103) having a second magnetic part , the third component (3/27, 103) being moveable relative to said first component (4/26, 100) in a given direction to effect switching between connection and disconnection of the first and second components by causing magnetic interaction of the first and second magnetic parts to effect relative movement of those magnetic parts, wherein, when and while connected, the first and second components are able to move relative to one another in said given direction; and characterised by further comprising a fourth component for engagement with said first component (4/26, 100) to prevent movement of the third component (3/27, 103) relative to the first component (4/26, 100) in said given direction as a result of relative movement of the first and second components in said given direction, thereby to prevent unintended disconnection of the first and second components. a first component (4/26,100) having a first magnetic part for integration with or attachment to a first of said parts; a second component for integration with or attachment to a second of said parts; a third component (3/27, 103) having a second magnetic part , the third component (3/27, 103) being moveable relative to said first component (4/26, 100) in a given direction to effect switching between connection and disconnection of the first and second components by causing magnetic interaction of the first and second magnetic parts to effect relative movement of those magnetic parts, wherein, when and while connected, the first and second components are able to move relative to one another in said given direction; and characterised by further comprising a fourth component for engagement with said first component (4/26, 100) to prevent movement of the third component (3/27, 103) relative to the first component (4/26, 100) in said given direction as a result of relative movement of the first and second components in said given direction, thereby to prevent unintended disconnection of the first and second components.
A processor implemented method of diagnosing a heart state based on an electrocardiogram, comprising: obtaining an electrocardiogram file (31, F1), wherein the electrocardiogram file (31, F1) is in a first file format and comprises a plurality of potential traces (ECG_t1,ECG_t2, ECG_t3) of a plurality of leads; converting the electrocardiogram file (31, F1) into a second file format to obtain electrocardiogram data (41, ECG_d1, ECG_d2, ECG_d3) corresponding to the plurality of leads, wherein, each of the plurality of potential traces (ECG_t1,ECG_t2, ECG_t3) relative to time in the electrocardiogram file (31, F1) is converted into the electrocardiogram data (41, ECG_d1, ECG_d2, ECG_d3) of each of the plurality of lead; generating an integrated electrocardiogram data (42, F1) associated with the plurality of leads based on the electrocardiogram data (41, ECG_d1, ECG_d2, ECG_d3) of the plurality of leads through a zero-padding operation and a stacking operation; and generating a diagnostic result (S1) of a heart state according to the integrated electrocardiogram data (42, F1) and a deep learning model (DM1). obtaining an electrocardiogram file (31, F1), wherein the electrocardiogram file (31, F1) is in a first file format and comprises a plurality of potential traces (ECG_t1,ECG_t2, ECG_t3) of a plurality of leads; converting the electrocardiogram file (31, F1) into a second file format to obtain electrocardiogram data (41, ECG_d1, ECG_d2, ECG_d3) corresponding to the plurality of leads, wherein, each of the plurality of potential traces (ECG_t1,ECG_t2, ECG_t3) relative to time in the electrocardiogram file (31, F1) is converted into the electrocardiogram data (41, ECG_d1, ECG_d2, ECG_d3) of each of the plurality of lead; generating an integrated electrocardiogram data (42, F1) associated with the plurality of leads based on the electrocardiogram data (41, ECG_d1, ECG_d2, ECG_d3) of the plurality of leads through a zero-padding operation and a stacking operation; and generating a diagnostic result (S1) of a heart state according to the integrated electrocardiogram data (42, F1) and a deep learning model (DM1).
A method for real time instruction tracing comprising the operations of: recording user-specified address ranges for which tracing is required; monitoring a next linear instruction pointer 'NLIP' values and/or branch linear instruction pointer 'BLIP' values to determine if address range has been entered; when the range is entered , constructing fixed length tracing packets containing tracing data, the fixed length packets being visible internally to a hardware device and usable to simplify packet processing by the hardware device; and transferring the fixed length packets to a memory execution cluster, wherein: the length of the packets is fixed to a size equivalent to a maximum tracing packet size. recording user-specified address ranges for which tracing is required; monitoring a next linear instruction pointer 'NLIP' values and/or branch linear instruction pointer 'BLIP' values to determine if address range has been entered; when the range is entered , constructing fixed length tracing packets containing tracing data, the fixed length packets being visible internally to a hardware device and usable to simplify packet processing by the hardware device; and transferring the fixed length packets to a memory execution cluster, wherein: the length of the packets is fixed to a size equivalent to a maximum tracing packet size.
Use of a lubricant composition as gearbox oil in an electric vehicle, the lubricant composition comprising at least 75 wt% of a base stock and 2 wt% to 10 wt% of a traction coefficient additive compound, based on the total weight of the lubricant composition, of the Formula (I): R 1 [(AO) n -R 2 ] m (I) wherein: - R 1 is the residue of sorbitol; - m is in the range from 5 to 6; - AO is an ethylene oxide residue; - n is in the range from 2 to 10; and - each R 2 is independently H or R 3 , where each R 3 is a residue of (poly)12-hydroxystearic acid; and - on average at least 0.5 of R 2 groups are R 3 . - R 1 is the residue of sorbitol; - m is in the range from 5 to 6; - AO is an ethylene oxide residue; - n is in the range from 2 to 10; and - each R 2 is independently H or R 3 , where each R 3 is a residue of (poly)12-hydroxystearic acid; and - on average at least 0.5 of R 2 groups are R 3 .