mhurhangee/ep-ind-claims huggingface dataset:
A compressive sampling method for acquiring marine seismic data, comprising: towing in straight lines at least one seismic energy source (SA1, SA2, SC1, SC2) in a body of water; actuating the at least one seismic energy source (SA1, SA2, SC1, SC2) at a plurality of spatial positions, a distance between each of the plurality of actuations being randomly different than any other such distance, the difference between successive distances being sufficiently large to enable detection of corresponding differences between a position of the at least one seismic energy source corresponding to each actuation; recording seismic energy detected by at least one seismic sensor substantially continuously through a plurality of actuations of the at least one seismic energy source (SA1, SA2, SC1, SC2), the recording comprising recording a geodetic position of the at least one seismic energy source (SA1, SA2, SC1, SC2) and the at least one seismic sensor at each actuation; and processing the recorded seismic energy into extracted discrete shot records each corresponding to a recorded signal at an actual position of the at least one seismic energy source (SA1, SA2, SC1, SC2) and the at least one seismic sensor at each actuation. towing in straight lines at least one seismic energy source (SA1, SA2, SC1, SC2) in a body of water; actuating the at least one seismic energy source (SA1, SA2, SC1, SC2) at a plurality of spatial positions, a distance between each of the plurality of actuations being randomly different than any other such distance, the difference between successive distances being sufficiently large to enable detection of corresponding differences between a position of the at least one seismic energy source corresponding to each actuation; recording seismic energy detected by at least one seismic sensor substantially continuously through a plurality of actuations of the at least one seismic energy source (SA1, SA2, SC1, SC2), the recording comprising recording a geodetic position of the at least one seismic energy source (SA1, SA2, SC1, SC2) and the at least one seismic sensor at each actuation; and processing the recorded seismic energy into extracted discrete shot records each corresponding to a recorded signal at an actual position of the at least one seismic energy source (SA1, SA2, SC1, SC2) and the at least one seismic sensor at each actuation.
A cosmetic product comprising: a silicone acrylate-free, W/O type cosmetic composition comprising an inorganic UV-blocking agent and a silicone elastomer emulsifier; and a carrier comprising a sponge in which the cosmetic composition is impregnated, wherein the weight ratio of the inorganic UV-blocking agent and the silicone elastomer emulsifier is 10-30: 0.01-5, wherein the viscosity of the W/O type cosmetic composition is 5 to 35 Pa.s (5,000 to 35,000 centipoises), and wherein the sponge has a density of 0.1 to 0.18 g/cm 3.
A method performed by an Access and mobility Management Function, AMF, node for allocating a target network slice instance to serve a Protocol Data Unit, PDU, session for a User Equipment, UE, in a communications network, the method comprising: receiving (501,710), from a Network Slice Selection Function, NSSF, node, information about a decision to change an allocation of a first network slice instance that is serving the PDU session for the UE to the target network slice instance, and an identifier of the target network slice instance, retrieving (502,712), from a first Session Management Function, SMF, node of the first network slice instance, a UE context related to the UE and the PDU session, transmitting (504,713), towards a target SMF node of the target network slice instance, information about the retrieved UE context and Access Network, AN, tunnel information to be used for the PDU session, receiving (505,716) from the target SMF node, target Core Network, CN, tunnel information to be used for the PDU session, allocating the target network slice instance to route data flows pertaining to the PDU session by transmitting (506,721) towards an Access Network, AN, node, the target CN tunnel information to be used for the PDU session. receiving (501,710), from a Network Slice Selection Function, NSSF, node, information about a decision to change an allocation of a first network slice instance that is serving the PDU session for the UE to the target network slice instance, and an identifier of the target network slice instance, retrieving (502,712), from a first Session Management Function, SMF, node of the first network slice instance, a UE context related to the UE and the PDU session, transmitting (504,713), towards a target SMF node of the target network slice instance, information about the retrieved UE context and Access Network, AN, tunnel information to be used for the PDU session, receiving (505,716) from the target SMF node, target Core Network, CN, tunnel information to be used for the PDU session, allocating the target network slice instance to route data flows pertaining to the PDU session by transmitting (506,721) towards an Access Network, AN, node, the target CN tunnel information to be used for the PDU session.
Holder device for holding a portable electronic device of the smart phone type, comprising a mount intended for mounting said device on a motor vehicle dashboard element, and a cradle connected to the mount and intended to accept the portable device, said dashboard element consisting of a central display screen of the vehicle, said holder device being characterized in that it comprises rails arranged along at least an upper edge of the screen, said mount being provided with guiding and retaining elements (212, 213) which are intended to collaborate with the rails, and with an operating member that can be manipulated manually between an operated state in which said guiding and retaining elements can move freely in translation in a slot formed in the rails, and a state of rest in which said guiding and retaining elements are immobilized in said slot.
A method for manufacturing a DRAM structure, comprising: providing a substrate; forming a plurality of bit line structures distributed at intervals on the substrate, each of the bit line structures comprising a conductive layer, a transition layer and a covering layer stacked sequentially, and a width of the transition layer being smaller than a width of the conductive layer, the conductive layer being connected with an active structure of a transistor structure; forming air gaps on a top surface of the conductive layer and side surfaces of the transition layer; and forming a conductive plug comprising a first conductive portion and a second conductive portion on the substrate between the bit line structures, and forming the second conductive portion over the first conductive portion, the conductive plug configured to be connected to a capacitor storage structure, characterized in that a bottom portion of the second conductive portion has an inclined surface facing the bit line structure, a vertical distance between a top corner of the transition layer and the inclined surface is smaller than a vertical distance between a top corner of the conductive layer and the inclined surface, and a bottom of the inclined surface is higher than a top of the conductive layer and lower than a top of the transition layer. providing a substrate; forming a plurality of bit line structures distributed at intervals on the substrate, each of the bit line structures comprising a conductive layer, a transition layer and a covering layer stacked sequentially, and a width of the transition layer being smaller than a width of the conductive layer, the conductive layer being connected with an active structure of a transistor structure; forming air gaps on a top surface of the conductive layer and side surfaces of the transition layer; and forming a conductive plug comprising a first conductive portion and a second conductive portion on the substrate between the bit line structures, and forming the second conductive portion over the first conductive portion, the conductive plug configured to be connected to a capacitor storage structure, characterized in that a bottom portion of the second conductive portion has an inclined surface facing the bit line structure, a vertical distance between a top corner of the transition layer and the inclined surface is smaller than a vertical distance between a top corner of the conductive layer and the inclined surface, and a bottom of the inclined surface is higher than a top of the conductive layer and lower than a top of the transition layer.
A method comprising: receiving a data transaction directed to a total address range of a memory structure; recording (208, 214) the data transaction in a first set of counters and in a second set of counters, wherein: the first set of counters divides the total address range into address ranges of a first size, the second set of counters divides the total address range into address ranges of a second size that is different from the first size, characterized in that, the first set of counters record the number of data transactions accessing each respective address range during a time interval of a first duration, the second set of counters record the number of data transactions accessing each respective address range during a time interval of a second duration, and the second duration is different from the first duration; determining one of a storage device or a cache thereof to service the data transaction based on the first set of counters for accessed data which has not yet been cached; preloading (216, 218, 220) data into the cache based on the second set of counters in anticipation of subsequent transactions, evicting, based on the first set of counters, data from the cache which has been loaded into the cache, in response to the preceding steps of determining and preloading. receiving a data transaction directed to a total address range of a memory structure; recording (208, 214) the data transaction in a first set of counters and in a second set of counters, wherein: the first set of counters divides the total address range into address ranges of a first size, the second set of counters divides the total address range into address ranges of a second size that is different from the first size, characterized in that, the first set of counters record the number of data transactions accessing each respective address range during a time interval of a first duration, the second set of counters record the number of data transactions accessing each respective address range during a time interval of a second duration, and the second duration is different from the first duration; the first set of counters divides the total address range into address ranges of a first size, the second set of counters divides the total address range into address ranges of a second size that is different from the first size, characterized in that, the first set of counters record the number of data transactions accessing each respective address range during a time interval of a first duration, the second set of counters record the number of data transactions accessing each respective address range during a time interval of a second duration, and the second duration is different from the first duration; determining one of a storage device or a cache thereof to service the data transaction based on the first set of counters for accessed data which has not yet been cached; preloading (216, 218, 220) data into the cache based on the second set of counters in anticipation of subsequent transactions, evicting, based on the first set of counters, data from the cache which has been loaded into the cache, in response to the preceding steps of determining and preloading.
A method of detecting a target material using aptamers, the method comprising the steps of: (a) adding a sample containing a target material, and a second aptamer binding specifically to the target material and having a label attached thereto, to a first aptamer immobilized on a solid phase and binding specifically to the target material, to form a mixture, and incubating the mixture, wherein the first aptamer or the second aptamer is selected from aptamers represented by nucleic acid sequences of SEQ ID NOs: 2 to 28; and (b) analyzing the label to detect the target material. (a) adding a sample containing a target material, and a second aptamer binding specifically to the target material and having a label attached thereto, to a first aptamer immobilized on a solid phase and binding specifically to the target material, to form a mixture, and incubating the mixture, wherein the first aptamer or the second aptamer is selected from aptamers represented by nucleic acid sequences of SEQ ID NOs: 2 to 28; and (b) analyzing the label to detect the target material.
A method for writing data to a persistent storage module ("PSM") in a communication fabric, the method comprising: receiving a PSM write request from a client at a processor, wherein the PSM write request indicates the client has data to write to the PSM; identifying a write location for the data at the processor, wherein the write location is associated with the PSM; providing the write location to the client; receiving the data at the PSM from the client, wherein the data is received via a communication path through a down stream IO tier switch associated with the client; receiving a client write completion notification from the client at the processor; the method being characterized in that: transmitting a write complete indicator to the PSM from the processor, wherein the write complete indicator is transmitted to the PSM via the communication path through the down stream IO tier switch. receiving a PSM write request from a client at a processor, wherein the PSM write request indicates the client has data to write to the PSM; identifying a write location for the data at the processor, wherein the write location is associated with the PSM; providing the write location to the client; receiving the data at the PSM from the client, wherein the data is received via a communication path through a down stream IO tier switch associated with the client; receiving a client write completion notification from the client at the processor;
A method, comprising: receiving, at a control plane system, a first boot request from a first node at an edge location; generating, in response to the first boot request, a first boot response including an identifier for the first node and information associated with an operating system, OS, provider service on the control plane system, wherein the first boot response is transmitted via a virtual private network, VPN; causing the OS provider service to provide an OS file to the first node, wherein providing the OS file to the first node causes the first node to instantiate an OS instance on the first node, wherein the OS instance provides a local instance of the OS provider service on the first node, and wherein the OS file is provided via a different network than the VPN; receiving, at the control plane system, a second boot request from a second node at the edge location; and providing, to the second node in response to the second boot request and based on a determination that the OS instance is instantiated on the first node, a second boot response including instructions associated with obtaining the OS file from the first node. receiving, at a control plane system, a first boot request from a first node at an edge location; generating, in response to the first boot request, a first boot response including an identifier for the first node and information associated with an operating system, OS, provider service on the control plane system, wherein the first boot response is transmitted via a virtual private network, VPN; causing the OS provider service to provide an OS file to the first node, wherein providing the OS file to the first node causes the first node to instantiate an OS instance on the first node, wherein the OS instance provides a local instance of the OS provider service on the first node, and wherein the OS file is provided via a different network than the VPN; receiving, at the control plane system, a second boot request from a second node at the edge location; and providing, to the second node in response to the second boot request and based on a determination that the OS instance is instantiated on the first node, a second boot response including instructions associated with obtaining the OS file from the first node.
A method of controlling a numerical control machine tool, comprising: using a numerical control driver to: generate a flag which designates a kind of operation of the numerical control machine tool and an operating variable which is used for controlling the operation of the numerical control machine tool, based on an instruction used for controlling a three-dimensional measuring device different from the numerical control machine tool; and store the flag in a flag storage area and storing the operating variable in an operating variable storage area; and using a numerical control controller to: select an operation to be executed by the numerical control machine tool by referring to a value of the flag stored in the flag storage area; and execute a control of the selected operation of the numerical control machine tool in accordance with a value of the operating variable stored in the operating variable storage area. using a numerical control driver to: generate a flag which designates a kind of operation of the numerical control machine tool and an operating variable which is used for controlling the operation of the numerical control machine tool, based on an instruction used for controlling a three-dimensional measuring device different from the numerical control machine tool; and store the flag in a flag storage area and storing the operating variable in an operating variable storage area; and generate a flag which designates a kind of operation of the numerical control machine tool and an operating variable which is used for controlling the operation of the numerical control machine tool, based on an instruction used for controlling a three-dimensional measuring device different from the numerical control machine tool; and store the flag in a flag storage area and storing the operating variable in an operating variable storage area; and using a numerical control controller to: select an operation to be executed by the numerical control machine tool by referring to a value of the flag stored in the flag storage area; and execute a control of the selected operation of the numerical control machine tool in accordance with a value of the operating variable stored in the operating variable storage area. select an operation to be executed by the numerical control machine tool by referring to a value of the flag stored in the flag storage area; and execute a control of the selected operation of the numerical control machine tool in accordance with a value of the operating variable stored in the operating variable storage area.
Pigment granules for colouring building materials, characterized in that they consist of a pressed or briquetted core and at least one outer layer applied by granulation, a) the core containing at least one organic pigment selected from the group of azo, quinacridone, phthalocyanine and perylene pigments and indigoids, or at least one inorganic pigment selected from the group of iron oxides or chromium oxides or mixtures thereof and at least one auxiliary and b) the outer layer applied by granulation or the outer layers applied by granulation containing at least one - optionally pressed or briquetted - organic pigment selected from the group of azo, quinacridone, phthalocyanine and perylene pigments and indigoids, or inorganic pigment selected from the group of iron oxides or chromium oxides or mixtures thereof and the outer layer applied by granulation or the outer layers applied by granulation containing in each case at least one auxiliary and c) in the outer layer applied by granulation or the outer layers applied by granulation, 1) at least one auxiliary other than that in the pressed or briquetted core being present or 2) at least one organic or inorganic pigment other than that in the pressed or briquetted core being present and at least one auxiliary other than that in the pressed or briquetted core being present. a) the core containing at least one organic pigment selected from the group of azo, quinacridone, phthalocyanine and perylene pigments and indigoids, or at least one inorganic pigment selected from the group of iron oxides or chromium oxides or mixtures thereof and at least one auxiliary and b) the outer layer applied by granulation or the outer layers applied by granulation containing at least one - optionally pressed or briquetted - organic pigment selected from the group of azo, quinacridone, phthalocyanine and perylene pigments and indigoids, or inorganic pigment selected from the group of iron oxides or chromium oxides or mixtures thereof and the outer layer applied by granulation or the outer layers applied by granulation containing in each case at least one auxiliary and c) in the outer layer applied by granulation or the outer layers applied by granulation, 1) at least one auxiliary other than that in the pressed or briquetted core being present or 2) at least one organic or inorganic pigment other than that in the pressed or briquetted core being present and at least one auxiliary other than that in the pressed or briquetted core being present. 1) at least one auxiliary other than that in the pressed or briquetted core being present or 2) at least one organic or inorganic pigment other than that in the pressed or briquetted core being present and at least one auxiliary other than that in the pressed or briquetted core being present.
A coffee dispenser for dispensing coffee into a porta filter of a coffee machine, the coffee dispenser comprising: an inlet for receiving ground coffee; a ground coffee holder that receives ground coffee from the inlet; and a porta filter carriage for receiving a porta filter; characterized in that the porta filter carriage is movable relative to the ground coffee holder between a closed position wherein ground coffee is restricted from exiting the ground coffee holder under gravity, and a dispensing position wherein ground coffee is able to fall under gravity from the ground coffee holder into a filter basket of a porta filter received in the porta filter carriage; wherein when a porta filter is received in the porta filter carriage, movement of the porta filter carriage from the closed position to the dispensing position causes coffee to be dispensed into the filter basket, and subsequent movement of the porta filter carriage from the dispensing position to the closed position causes a scraping action to occur across the coffee disposed in the filter basket, thereby removing excess coffee from the filter basket. an inlet for receiving ground coffee; a ground coffee holder that receives ground coffee from the inlet; and a porta filter carriage for receiving a porta filter; characterized in that the porta filter carriage is movable relative to the ground coffee holder between a closed position wherein ground coffee is restricted from exiting the ground coffee holder under gravity, and a dispensing position wherein ground coffee is able to fall under gravity from the ground coffee holder into a filter basket of a porta filter received in the porta filter carriage; wherein when a porta filter is received in the porta filter carriage, movement of the porta filter carriage from the closed position to the dispensing position causes coffee to be dispensed into the filter basket, and subsequent movement of the porta filter carriage from the dispensing position to the closed position causes a scraping action to occur across the coffee disposed in the filter basket, thereby removing excess coffee from the filter basket.