mhurhangee/patent-ind-claim-en huggingface dataset:
A method for monitoring host computers, comprising: providing a preset script that, when executed, implements the following steps including: acquiring node information of a target node and host computer information of a target host computer in the target node, wherein the host computer information includes brand/model and to-be-monitored port; identifying a matching host computer template from a pre-loaded plurality of host computer templates based on the brand/model of the target host computer; calling a host computer template that matches the target host computer, and creating an instance of the target host computer in a monitoring system according to the host computer information and the host computer template, adding the created instance to a node tree corresponding to the node information, wherein the node tree displays the monitored status of each host computer; if the node tree corresponding to the node information does not exist, identifying a network operator information and a geographical location information included in the node information, calling the script for creating the node tree and executing the called script in accordance with the node information to create the node tree corresponding to the node information determining a to-be-monitored port of the created instance in the node tree based on the host computer information, calling a graph template that matches the port, and creating a port graph corresponding to the port for the created instance, and collecting real-time data of the port and drawing the collected real-time data into the port graph. acquiring node information of a target node and host computer information of a target host computer in the target node, wherein the host computer information includes brand/model and to-be-monitored port; identifying a matching host computer template from a pre-loaded plurality of host computer templates based on the brand/model of the target host computer; calling a host computer template that matches the target host computer, and creating an instance of the target host computer in a monitoring system according to the host computer information and the host computer template, adding the created instance to a node tree corresponding to the node information, wherein the node tree displays the monitored status of each host computer; if the node tree corresponding to the node information does not exist, identifying a network operator information and a geographical location information included in the node information, calling the script for creating the node tree and executing the called script in accordance with the node information to create the node tree corresponding to the node information determining a to-be-monitored port of the created instance in the node tree based on the host computer information, calling a graph template that matches the port, and creating a port graph corresponding to the port for the created instance, and collecting real-time data of the port and drawing the collected real-time data into the port graph.
A method comprising: determining , by a network device, to assign a number of Internet protocol "IP" addresses to a plurality of virtual machines "VMs" executed by the network device, the number of IP addresses being greater than two, wherein the IP addresses are Internet Protocol version 6 "IPv6" addresses; determining , by the network device, a first IP address; determining , by the network device, a range value that is equal to or greater than the number of IP addresses; generating , by the network device, a message according to Duplicate Address Detection "DAD" protocol including data indicating that the message includes a range of addresses, the data further indicating the first IP address and the range value, wherein the message according to DAD is an extended neighbor solicitation message; and sending , by the network device, the message according to DAD to one or more network devices to determine whether any IP address in a range starting with the first IP address and through the range value is in use by the one or more network devices. determining , by a network device, to assign a number of Internet protocol "IP" addresses to a plurality of virtual machines "VMs" executed by the network device, the number of IP addresses being greater than two, wherein the IP addresses are Internet Protocol version 6 "IPv6" addresses; determining , by the network device, a first IP address; determining , by the network device, a range value that is equal to or greater than the number of IP addresses; generating , by the network device, a message according to Duplicate Address Detection "DAD" protocol including data indicating that the message includes a range of addresses, the data further indicating the first IP address and the range value, wherein the message according to DAD is an extended neighbor solicitation message; and sending , by the network device, the message according to DAD to one or more network devices to determine whether any IP address in a range starting with the first IP address and through the range value is in use by the one or more network devices.
A method for determining a relative amount of full length opsin gene mRNA in a biological sample from a subject compared to exon 3-skipped (EX3(-)) opsin gene mRNA transcribed from one or more opsin genes in said sample, said method comprising: (a) generating opsin gene mRNA from a portion of said one or more opsin genes, wherein said portion comprises exons 2, 3, and 4 of said one or more opsin genes; (b) reverse transcribing the opsin gene mRNA to generate opsin gene cDNA; (c) generating amplification products from the opsin gene cDNA using PCR primers that span exon 3 of the one or more opsin genes, wherein the amplification products comprise a first population of amplification products representing full length opsin gene mRNA, and a second population of amplification products representing Ex3(-) opsin gene mRNA; and (d) detecting an amount of the first population of amplification products representing full length opsin gene mRNA and an amount of the second population of amplification products representing Ex3(-) opsin gene mRNA, wherein said detecting comprises a primer extension assay, real time qPCR, mass spectrometry, or next generation sequencing. (a) generating opsin gene mRNA from a portion of said one or more opsin genes, wherein said portion comprises exons 2, 3, and 4 of said one or more opsin genes; (b) reverse transcribing the opsin gene mRNA to generate opsin gene cDNA; (c) generating amplification products from the opsin gene cDNA using PCR primers that span exon 3 of the one or more opsin genes, wherein the amplification products comprise a first population of amplification products representing full length opsin gene mRNA, and a second population of amplification products representing Ex3(-) opsin gene mRNA; and (d) detecting an amount of the first population of amplification products representing full length opsin gene mRNA and an amount of the second population of amplification products representing Ex3(-) opsin gene mRNA, wherein said detecting comprises a primer extension assay, real time qPCR, mass spectrometry, or next generation sequencing.
A device comprising: a perovskite material capable of reversibly switching between a first state that is transparent and a second state that is opaque ; and an intercalating species , wherein: when a first condition is applied to the perovskite material, at least a portion the intercalating species is associated with the perovskite material and the perovskite material is transparent and substantially colorless; and when a second condition is applied to the perovskite material, at least a fraction of the portion of the intercalating species is transferred from the perovskite material and the perovskite material is opaque and substantially colored; characterized in that the intercalating species comprises at least one of RNH 2 , RR'NH, ROH, CO, or CO 2 , where R and R' are organic functional groups; and wherein RNH 2 is not NH 3 . a perovskite material capable of reversibly switching between a first state that is transparent and a second state that is opaque ; and an intercalating species , wherein: when a first condition is applied to the perovskite material, at least a portion the intercalating species is associated with the perovskite material and the perovskite material is transparent and substantially colorless; and when a second condition is applied to the perovskite material, at least a fraction of the portion of the intercalating species is transferred from the perovskite material and the perovskite material is opaque and substantially colored; when a first condition is applied to the perovskite material, at least a portion the intercalating species is associated with the perovskite material and the perovskite material is transparent and substantially colorless; and when a second condition is applied to the perovskite material, at least a fraction of the portion of the intercalating species is transferred from the perovskite material and the perovskite material is opaque and substantially colored; characterized in that the intercalating species comprises at least one of RNH 2 , RR'NH, ROH, CO, or CO 2 , where R and R' are organic functional groups; and wherein RNH 2 is not NH 3 .
A method for preparing a modified chitosan, comprising mixing a chitosan, an inorganic base, and a dispersant having a hydroxyl group, adding an etherifying agent thereto, and subjecting the resulting mixture to an etherification reaction to obtain the modified chitosan, wherein the etherification reaction comprises a first etherification reaction, a second etherification reaction, and a third etherification reaction; the first etherification reaction is performed at a temperature of 20-35 °C, a pressure of 0.05-0.1 MPa for 2.5-3.5 h; the second etherification reaction is performed at a temperature of 40-50 °C, a pressure of 0.11-0.18 MPa for 2.0-3.0 h; and the third etherification reaction is performed at a temperature of 55-65 °C, a pressure of 0.21-0.28 MPa for 2.0-3.0 h. mixing a chitosan, an inorganic base, and a dispersant having a hydroxyl group, adding an etherifying agent thereto, and subjecting the resulting mixture to an etherification reaction to obtain the modified chitosan, wherein the etherification reaction comprises a first etherification reaction, a second etherification reaction, and a third etherification reaction; the first etherification reaction is performed at a temperature of 20-35 °C, a pressure of 0.05-0.1 MPa for 2.5-3.5 h; the second etherification reaction is performed at a temperature of 40-50 °C, a pressure of 0.11-0.18 MPa for 2.0-3.0 h; and the third etherification reaction is performed at a temperature of 55-65 °C, a pressure of 0.21-0.28 MPa for 2.0-3.0 h.
A method for operating a draw frame , particularly for starting and/or stopping the draw frame , for example for exchanging a can and/or for subsequent threading of a sliver into a sliver channel, a sliver being guided between drafting system rollers of a drafting system drafting the sliver , and a thin part being produced in the sliver in order to be able to separate the sliver at the thin part , characterized in that the thin part in the sliver is produced during a stopping phase, in which the drafting system rolls are decelerated to a standstill, and/or a starting phase of the draw frame , in which the drafting system rolls are accelerated from the standstill, and in that thereafter the sliver is separated at the thin part .
An indoor unit comprising: a case having an opening part on a lower surface thereof when the indoor unit is installed; and a decorative panel having a rectangular air inlet being open to the opening part of the case , the decorative panel being attached to the lower surface of the case , the decorative panel having temporary hanging levers attached to positions shifted from midpoints on two of four sides on edges of the air inlet toward any opposed vertexes, the positions to which the temporary hanging levers are attached being located to prevent an error in an orientation of installation in which the decorative panel is attached to the case , the case having temporary hanging hooks corresponding to the temporary hanging levers on edges of the opening part, characterized in that the temporary hanging levers are attached to opposed positions shifted from midpoints on any opposed two of four sides on edges of the air inlet parallelly toward any opposed vertexes, and in that the temporary hanging levers each have a hook portion hooked on one of the temporary hanging hooks , and an operating portion on which a finger can be placed to turn the hook portion , and in that the indoor unit further comprises protruding portions for catching the turned temporary hanging levers , on the edges of the air inlet. a case having an opening part on a lower surface thereof when the indoor unit is installed; and a decorative panel having a rectangular air inlet being open to the opening part of the case , the decorative panel being attached to the lower surface of the case , the decorative panel having temporary hanging levers attached to positions shifted from midpoints on two of four sides on edges of the air inlet toward any opposed vertexes, the positions to which the temporary hanging levers are attached being located to prevent an error in an orientation of installation in which the decorative panel is attached to the case , the case having temporary hanging hooks corresponding to the temporary hanging levers on edges of the opening part, characterized in that the temporary hanging levers are attached to opposed positions shifted from midpoints on any opposed two of four sides on edges of the air inlet parallelly toward any opposed vertexes, and in that the temporary hanging levers each have a hook portion hooked on one of the temporary hanging hooks , and an operating portion on which a finger can be placed to turn the hook portion , and in that the indoor unit further comprises protruding portions for catching the turned temporary hanging levers , on the edges of the air inlet.
A computer-implemented method for calculating a location of a mobile computing device within an environment, comprising: receiving , at the mobile computing device, a coded light signal originating from a light source , wherein the coded light signal carries information about a location in the form of position coordinates of a center of a lighting effect projected by the light source onto a surface ; extracting , by the mobile computing device from the coded light signal, the information about a location in the form of position coordinates of a center of a lighting effect projected by the light source onto a surface ; determining , by the mobile computing device, an orientation of the mobile computing device relative to the surface; and calculating , by the mobile computing device, the location of the mobile computing device within the environment based at least in part on the location of the lighting effect and the orientation of the mobile computing device; wherein the calculating comprises calculating a distance of the mobile computing device from the center of the lighting effect; and calculating, by the mobile computing device, an angle between a first vector extending from a focal point of a camera lens of the mobile computing device to the surface along a central axis of the camera lens, and a second vector extending from the focal point to the center of the lighting effect, wherein calculating the location is further based on the angle. receiving , at the mobile computing device, a coded light signal originating from a light source , wherein the coded light signal carries information about a location in the form of position coordinates of a center of a lighting effect projected by the light source onto a surface ; extracting , by the mobile computing device from the coded light signal, the information about a location in the form of position coordinates of a center of a lighting effect projected by the light source onto a surface ; determining , by the mobile computing device, an orientation of the mobile computing device relative to the surface; and calculating , by the mobile computing device, the location of the mobile computing device within the environment based at least in part on the location of the lighting effect and the orientation of the mobile computing device; wherein the calculating comprises calculating a distance of the mobile computing device from the center of the lighting effect; and calculating, by the mobile computing device, an angle between a first vector extending from a focal point of a camera lens of the mobile computing device to the surface along a central axis of the camera lens, and a second vector extending from the focal point to the center of the lighting effect, wherein calculating the location is further based on the angle.
A fluid sampling device , the device comprising: a fluid composition sensor configured to receive a fluid sample and capture a plurality of particles from the fluid sample at a collection media , wherein the fluid composition sensor is further configured to generate particle data associated with the plurality of particles using a particle imaging operation; and a controller , the controller being configured to: determine an optimal sample volume to be sampled during a sample collection operation based at least in part on a comparison between a particle load condition defined by the plurality of particles captured at the collection media at a first instance during the sample collection operation and a predetermined optimal particle load condition, and further based on an identified first amount of time elapsed between the start of the sample collection operation and the first instance, and a known volumetric flow rate of the fluid composition sensor; and update one or more operational characteristics of the fluid composition sensor such that the sample collection operation is defined at least in part by the optimal sample volume. a fluid composition sensor configured to receive a fluid sample and capture a plurality of particles from the fluid sample at a collection media , wherein the fluid composition sensor is further configured to generate particle data associated with the plurality of particles using a particle imaging operation; and a controller , the controller being configured to: determine an optimal sample volume to be sampled during a sample collection operation based at least in part on a comparison between a particle load condition defined by the plurality of particles captured at the collection media at a first instance during the sample collection operation and a predetermined optimal particle load condition, and further based on an identified first amount of time elapsed between the start of the sample collection operation and the first instance, and a known volumetric flow rate of the fluid composition sensor; and update one or more operational characteristics of the fluid composition sensor such that the sample collection operation is defined at least in part by the optimal sample volume. determine an optimal sample volume to be sampled during a sample collection operation based at least in part on a comparison between a particle load condition defined by the plurality of particles captured at the collection media at a first instance during the sample collection operation and a predetermined optimal particle load condition, and further based on an identified first amount of time elapsed between the start of the sample collection operation and the first instance, and a known volumetric flow rate of the fluid composition sensor; and update one or more operational characteristics of the fluid composition sensor such that the sample collection operation is defined at least in part by the optimal sample volume.
A formulation comprising recombinant human tripeptidyl peptidase-1 (rhTPP1) for intracerebroventricular, intrathecal, or intraocular administration, wherein the rhTPP1 comprises the amino acid sequence of SEQ ID NO: 1 or a fragment thereof, wherein the formulation comprises rhTPP1 at a concentration of from 25 mg/mL to 35 mg/mL, further comprising potassium chloride at a concentration of 0.01 mg/mL to 1 mg/mL, magnesium chloride hexahydrate at a concentration of 0.01 mg/mL to 1 mg/mL, and calcium chloride dihydrate at a concentration of 0.01 mg/mL to 1 mg/mL, and wherein the formulation has a pH of 6.5.
A method for processing commands from a host computing device to a storage device (102, 102a-c, 104) and for coordinating an early population of an address translation cache, the method comprising: submitting, by the host , a number of active commands to a submission queue; identifying, by the storage device (102, 102a-c, 104), a command from the host computing device , the command including a logical address; starting, by the storage device (102, 102a-c, 104), a first timer in response to identifying the command, detecting a condition, wherein the condition includes detecting the expiration of the first timer, based on detecting the condition, requesting, by the storage device (102, 102a-c, 104), translation of the logical address into a physical address; storing, by the storage device (102, 102a-c, 104), the physical address in the cache; transferring data according to the command based on the physical address. submitting, by the host , a number of active commands to a submission queue; identifying, by the storage device (102, 102a-c, 104), a command from the host computing device , the command including a logical address; starting, by the storage device (102, 102a-c, 104), a first timer in response to identifying the command, detecting a condition, wherein the condition includes detecting the expiration of the first timer, based on detecting the condition, requesting, by the storage device (102, 102a-c, 104), translation of the logical address into a physical address; storing, by the storage device (102, 102a-c, 104), the physical address in the cache; transferring data according to the command based on the physical address.
Alight receiving element comprising: a semiconductor layer in which photodiodes (PD) performing photoelectric conversion of infrared rays are formed in units of pixels ; and a wiring layer in which a transfer transistor reading charge generated by the photodiodes (PD) is formed, wherein an inter-pixel light shielding unit that shields the infrared rays is formed at a pixel boundary portion of the wiring layer , wherein the inter-pixel light shielding unit is formed at a position of the same layer as that of a gate contact that connects a gate of the transfer transistor (TRG) and the metal film closest to the semiconductor layer , and wherein the inter-pixel light shielding unit is formed at the same time when the gate contact is formed, and the inter-pixel light shielding unit is formed of the same material as that of the gate contact . a semiconductor layer in which photodiodes (PD) performing photoelectric conversion of infrared rays are formed in units of pixels ; and a wiring layer in which a transfer transistor reading charge generated by the photodiodes (PD) is formed, wherein an inter-pixel light shielding unit that shields the infrared rays is formed at a pixel boundary portion of the wiring layer , wherein the inter-pixel light shielding unit is formed at a position of the same layer as that of a gate contact that connects a gate of the transfer transistor (TRG) and the metal film closest to the semiconductor layer , and wherein the inter-pixel light shielding unit is formed at the same time when the gate contact is formed, and the inter-pixel light shielding unit is formed of the same material as that of the gate contact . wherein the inter-pixel light shielding unit is formed at a position of the same layer as that of a gate contact that connects a gate of the transfer transistor (TRG) and the metal film closest to the semiconductor layer , and wherein the inter-pixel light shielding unit is formed at the same time when the gate contact is formed, and the inter-pixel light shielding unit is formed of the same material as that of the gate contact .