mhurhangee/patent-ind-claim-en huggingface dataset:
Apparatus for vertically guiding optical waveguide cables and for vertically storing excess lengths of the said optical waveguide cables within an optical waveguide distributor device, having a first, rear base body which can be mounted in the optical waveguide distributor device and which, in the mounted state, extends adjacent to a rear face of the optical waveguide distributor device, and having a second, front base body which can likewise be mounted in the optical waveguide distributor device and which, in the mounted state, extends adjacent to a front face of the optical waveguide distributor device, wherein the first, rear base body and the second, front base body are configured to be mounted within the optical waveguide distributor device with a vertical orientation in a fixed and therefore non-pivotable manner, and wherein a plurality of guide elements for guiding optical waveguide cables and for storing excess lengths of the said optical waveguide cables in a first vertical plane are fastened to a front wall of the first, rear base body , and a plurality of guide elements for guiding optical waveguide cables and for storing excess lengths of the said optical waveguide cables in a second vertical plane are fastened to a front wall of the second, front base body , the second, front base body having a smaller width than the first, rear base body , so that the optical waveguide cables which are guided on the guide elements of the first, rear base body and stored excess lengths of the said optical waveguide cables are accessible from the front face of the optical waveguide distributor device, characterized in that the first, rear base body has two sections which are angled in relation to one another, first guide elements being fastened to a first section of the first, rear base body , and second guide elements being fastened to a second section of the first, rear base body , and the apparatus further comprises fastening struts , wherein the second, front base body is configured to be mounted on the first, rear base body by means of the fastening struts which extend between the first section of the first, rear base body and a first section of the second, front base body , wherein the first section of the second, front base body extends in the mounted state parallel to the first section of the first, rear base body , wherein the second, front base body is positioned in front of the first, rear base body in such a way that the second, front base body does not conceal the first guide elements which are fastened to the first section of the first, rear base body but rather at least partially conceals the second guide elements which are fastened to the second section of the first, rear base body .
An aerosol delivery device comprising: a housing ; a microelectromechanical systems-based (MEMS-based) sensor within the housing and configured to detect a pressure on the MEMS-based sensor caused by airflow through at least a portion of the housing , the MEMS-based sensor being configured to convert the pressure to an electrical signal, and output the electrical signal; and a microprocessor configured to receive the electrical signal from the MEMS-based sensor , and control operation of at least one functional element of the aerosol delivery device based thereon; characterized in that the MEMS-based sensor includes a first die with a micromachined sensor having a diaphragm , and a second die wire bonded to the first die and including a bias generator circuit configured to bias the micromachined sensor with an input voltage, and wherein in an instance in which the input voltage is applied to the micromachined sensor , the pressure causes movement of the diaphragm and thereby a change in an electrical property of the micromachined sensor , the change in electrical property causing a change in an output voltage across the micromachined sensor , the output voltage or a digital representation thereof being output by the MEMS-based sensor as the electrical signal. a housing ; a microelectromechanical systems-based (MEMS-based) sensor within the housing and configured to detect a pressure on the MEMS-based sensor caused by airflow through at least a portion of the housing , the MEMS-based sensor being configured to convert the pressure to an electrical signal, and output the electrical signal; and a microprocessor configured to receive the electrical signal from the MEMS-based sensor , and control operation of at least one functional element of the aerosol delivery device based thereon;
Circuit breaker comprising a live line between a live supply connecting terminal and a live load connecting terminal , a neutral line between a neutral supply connecting terminal and a neutral load connecting terminal , and a semiconductor switching unit located in the live line , the circuit breaker further comprises a bypass line , which bypass line is connected in parallel to the semiconductor switching unit , with a first mechanical switch and a second mechanical switch located in the bypass line , with the first mechanical switch connected in series to the second mechanical switch , whereby the semiconductor switching unit , the first mechanical switch and the second mechanical switch are controlled by a processing unit of the circuit breaker , whereby the processing unit is embodied to perform following steps in case of a short-circuit-detection or an overcurrent-detection: - sending a first opening command to the first mechanical switch , - sending a second opening command to the second mechanical switch a time-delay after sending of the first opening command, characterized in that the circuit breaker comprises a commutation detection arrangement to detect at least the beginning of a current commutation from the bypass line to the semiconductor switching unit , with the commutation detection arrangement being connected to the processing unit , whereby the time-delay is a variable time-delay, whereby the variable time-delay is defined as the period until the commutation detection arrangement detects a predefined level of commutation of a current from the bypass line to the semiconductor switching unit or the variable time-delay is defined as an expected commutation time minus a reaction time period of the second mechanical switch , whereby the processing unit is embodied to estimate the expected commutation time under consideration of a variation in time of a current in the live line and/or a current in the bypass line . - sending a first opening command to the first mechanical switch , - sending a second opening command to the second mechanical switch a time-delay after sending of the first opening command,
A method for forming an optical article comprising: - providing a host matrix and a photochromic composition comprising a photochromic dye; - isolating the photochromic composition in two types of particles, wherein one type of particles has a low glass transition temperature microenvironment and the other type of particles has a high glass transition temperature microenvironment; - dispersing the two types of particles in said host matrix to obtain two dispersed phases embedded within the host matrix; and - depositing the host matrix comprising the two types of dispersed phase particles.. - providing a host matrix and a photochromic composition comprising a photochromic dye; - isolating the photochromic composition in two types of particles, wherein one type of particles has a low glass transition temperature microenvironment and the other type of particles has a high glass transition temperature microenvironment; - dispersing the two types of particles in said host matrix to obtain two dispersed phases embedded within the host matrix; and - depositing the host matrix comprising the two types of dispersed phase particles.. - isolating the photochromic composition in two types of particles, wherein one type of particles has a low glass transition temperature microenvironment and the other type of particles has a high glass transition temperature microenvironment; - dispersing the two types of particles in said host matrix to obtain two dispersed phases embedded within the host matrix; and - depositing the host matrix comprising the two types of dispersed phase particles..
A top case component of a lead-acid monobloc case, the top case component comprising: a top exterior surface of the monobloc case; a top interior surface of the monobloc case; a top sealing surface configured to be sealingly bonded with a bottom sealing surface of a primary case component of the monobloc case, wherein the primary case component further comprises integral sides and bottom and the bottom sealing surface corresponds to the uppermost surfaces of the integral sides; a positive terminal opening configured for a positive terminal pole of a monobloc to protrude through; and a negative terminal opening configured for a negative terminal pole of the monobloc to protrude through; wherein the top exterior surface of the monobloc case comprises: a pocket configured to house a battery monitor circuit, wherein at least a bottommost surface of the pocket is below the top sealing surface such that when the top case component is bonded to the primary case component the pocket extends into an interior of the monobloc case past the sealed interface of the top case component and the primary case component; and at least one pathway configured to house electrically conducting connections that place the battery monitor circuit in electrical connection with the positive and negative terminal poles of the monobloc. a top exterior surface of the monobloc case; a top interior surface of the monobloc case; a top sealing surface configured to be sealingly bonded with a bottom sealing surface of a primary case component of the monobloc case, wherein the primary case component further comprises integral sides and bottom and the bottom sealing surface corresponds to the uppermost surfaces of the integral sides; a positive terminal opening configured for a positive terminal pole of a monobloc to protrude through; and a negative terminal opening configured for a negative terminal pole of the monobloc to protrude through; a pocket configured to house a battery monitor circuit, wherein at least a bottommost surface of the pocket is below the top sealing surface such that when the top case component is bonded to the primary case component the pocket extends into an interior of the monobloc case past the sealed interface of the top case component and the primary case component; and at least one pathway configured to house electrically conducting connections that place the battery monitor circuit in electrical connection with the positive and negative terminal poles of the monobloc.
A compound or a salt thereof, of structure wherein n is an integer from 1 to 5 and R 2 is H or methyl.
A system for creating a multi-region virtual overlay network for a software-defined wide area network, the system comprising: a plurality of network appliances , each appliance of the plurality of network appliances having a plurality of network interfaces for transmitting and receiving data over at least two communication networks ; and an orchestrator device in communication with each of the plurality of network appliances , wherein the orchestrator device is configured to: process information regarding configuration of each network appliance of the plurality of network appliances ; characterized in that the orchestrator device is further configured to: dynamically assign each network appliance to one region from a plurality of regions in the virtual overlay network, creating at least two regional subnetworks on the virtual overlay network; dynamically assign each appliance within a regional subnetwork to a role of either a hub or a spoke for its region, creating a network topology for the region; create a first plurality of virtual tunnels on the virtual overlay network for each region, each of the first plurality of tunnels connecting each appliance within a region to at least one other appliance in the same region, in accordance with the network topology for the region; and create a second plurality of virtual tunnels on the virtual overlay network to connect at least one appliance within each region to at least one appliance in each other region, for inter-region connectivity. a plurality of network appliances , each appliance of the plurality of network appliances having a plurality of network interfaces for transmitting and receiving data over at least two communication networks ; and an orchestrator device in communication with each of the plurality of network appliances , wherein the orchestrator device is configured to: process information regarding configuration of each network appliance of the plurality of network appliances ; dynamically assign each network appliance to one region from a plurality of regions in the virtual overlay network, creating at least two regional subnetworks on the virtual overlay network; dynamically assign each appliance within a regional subnetwork to a role of either a hub or a spoke for its region, creating a network topology for the region; create a first plurality of virtual tunnels on the virtual overlay network for each region, each of the first plurality of tunnels connecting each appliance within a region to at least one other appliance in the same region, in accordance with the network topology for the region; and create a second plurality of virtual tunnels on the virtual overlay network to connect at least one appliance within each region to at least one appliance in each other region, for inter-region connectivity.
A well production system having a wellhead master valve for use in a production well having a wellhead attached to a production tubing , comprising: a body member connecting the wellhead and the production tubing and having an upstream inlet bore , a downstream outlet bore , and an interior chamber ; a fluid bypass pathway connecting the upstream inlet bore upstream each of any flow control member of the wellhead to a port in the body member to allow fluid communication with the production tubing independent of a position of the any flow control member of the wellhead; a communication conduit having an upper end and a distal end installed through the fluid bypass pathway a flow control member disposed in the interior chamber to regulate a fluid flow from the upstream inlet bore to the downstream outlet bore ; and a subsurface safety valve disposed in the production tubing, the subsurface safety valve connected to the distal end of the communication conduit and characterized in that : the communication conduit is a production enhancing fluid communication conduit and in that the well production system further comprises a lower communication conduit extending upstream from the subsurface safety valve , the lower communication conduit being in fluid communication with the communication conduit through an interior passage of the subsurface safety valve. a body member connecting the wellhead and the production tubing and having an upstream inlet bore , a downstream outlet bore , and an interior chamber ; a fluid bypass pathway connecting the upstream inlet bore upstream each of any flow control member of the wellhead to a port in the body member to allow fluid communication with the production tubing independent of a position of the any flow control member of the wellhead; a communication conduit having an upper end and a distal end installed through the fluid bypass pathway a flow control member disposed in the interior chamber to regulate a fluid flow from the upstream inlet bore to the downstream outlet bore ; and a subsurface safety valve disposed in the production tubing, the subsurface safety valve connected to the distal end of the communication conduit and characterized in that : the communication conduit is a production enhancing fluid communication conduit and in that the well production system further comprises a lower communication conduit extending upstream from the subsurface safety valve , the lower communication conduit being in fluid communication with the communication conduit through an interior passage of the subsurface safety valve.
A method comprising: receiving , by a network device, first data defining a group of Label Switched Paths, LSPs; receiving , by the network device, second data defining a bypass LSP name for a bypass LSP and one or more constraints for the bypass LSP; receiving , by the network device, third data defining a mapping between the group of LSPs and the bypass LSP name; in response to receiving the third data, automatically signaling , by the network device, the bypass LSP for the bypass LSP name in accordance with the one or more constraints; selecting , by the network device and based on the third data defining the mapping, a respective alternate next hop for rerouting network traffic received on each LSP of the group of LSPs to the signaled bypass LSP; and programming a forwarding component of the network device to install each of the respective alternate next hops as alternate next hops to primary next hops for the LSPs of the group of LSPs. receiving , by a network device, first data defining a group of Label Switched Paths, LSPs; receiving , by the network device, second data defining a bypass LSP name for a bypass LSP and one or more constraints for the bypass LSP; receiving , by the network device, third data defining a mapping between the group of LSPs and the bypass LSP name; in response to receiving the third data, automatically signaling , by the network device, the bypass LSP for the bypass LSP name in accordance with the one or more constraints; selecting , by the network device and based on the third data defining the mapping, a respective alternate next hop for rerouting network traffic received on each LSP of the group of LSPs to the signaled bypass LSP; and programming a forwarding component of the network device to install each of the respective alternate next hops as alternate next hops to primary next hops for the LSPs of the group of LSPs.
A method for resetting and verifying a resistive memory, comprising: enabling at least one word line signal (WL) corresponding to one selected resistive memory cell of the resistive memory during a resetting and verifying timing period (TR/TS); providing a bit line voltage (VVER) to the bit line of the selected resistive memory cell , wherein the bit line voltage (VVER) continuously decreases from a first voltage level to a second voltage level during the resetting and verifying timing period (TR/TS); and measuring a detected current (CBL) through the bit line of the selected resistive memory cell and determining a finish time point (TF2) of the resetting and verifying timing period (TR/TS) by comparing the detected current (CBL) and a reference current (CREF); characterised in that : the reference current (CREF) is generated by the application of the bit line voltage (VVER) to the cathode of a diode (D1) providing an exponential variation of the reference current (CREF) with the bit line voltage (VVER). enabling at least one word line signal (WL) corresponding to one selected resistive memory cell of the resistive memory during a resetting and verifying timing period (TR/TS); providing a bit line voltage (VVER) to the bit line of the selected resistive memory cell , wherein the bit line voltage (VVER) continuously decreases from a first voltage level to a second voltage level during the resetting and verifying timing period (TR/TS); and measuring a detected current (CBL) through the bit line of the selected resistive memory cell and determining a finish time point (TF2) of the resetting and verifying timing period (TR/TS) by comparing the detected current (CBL) and a reference current (CREF); characterised in that : the reference current (CREF) is generated by the application of the bit line voltage (VVER) to the cathode of a diode (D1) providing an exponential variation of the reference current (CREF) with the bit line voltage (VVER).
A hand dryer device comprising: a nozzle unit having an air outlet to blow air out in a blowing direction (D1) that has been preset; a blower to supply air to be blown out of the air outlet to the nozzle unit ; a distance detection means to detect a distance (L1) between an object (BD) and the nozzle unit , the object (BD) being disposed apart from the air outlet in the blowing direction (D1); a hand detection means to detect whether or not there is a hand being placed between the object (BD) and the nozzle unit ; and a control unit to set a rotational speed of the blower based on the distance (L1) detected by the distance detection means , and drive the blower when the hand detection means detects a hand, wherein a rotational speed of the blower that is set when the distance (L1) detected by the distance detection means is less than a first distance is less than a rotational speed of the blower that is set when the distance (L1) detected by the distance detection means is equal to the first distance. a nozzle unit having an air outlet to blow air out in a blowing direction (D1) that has been preset; a blower to supply air to be blown out of the air outlet to the nozzle unit ; a distance detection means to detect a distance (L1) between an object (BD) and the nozzle unit , the object (BD) being disposed apart from the air outlet in the blowing direction (D1); a hand detection means to detect whether or not there is a hand being placed between the object (BD) and the nozzle unit ; and a control unit to set a rotational speed of the blower based on the distance (L1) detected by the distance detection means , and drive the blower when the hand detection means detects a hand, wherein a rotational speed of the blower that is set when the distance (L1) detected by the distance detection means is less than a first distance is less than a rotational speed of the blower that is set when the distance (L1) detected by the distance detection means is equal to the first distance.
A computer-implemented method comprising: obtaining harvest data indicative of a prior harvesting operation on a field; identifying a region of the field having already-harvested crop plants based on the harvest data; detecting a characteristic of crop plants in a field in a path of an agricultural harvesting machine in a direction of travel; generating , based on the detected characteristic, a height metric representing a height of the crop plants on a particular area of the field; the method being characterised in that it further comprises the steps of identifying the crop plants on the particular area of the field as downed crop based on a determination that the height metric indicates a crop height below a threshold and that the harvest data indicate that the particular area is not in an already harvested region; and generating a control signal to control the agricultural harvesting machine based on the identification of downed crop on the particular area of the field. obtaining harvest data indicative of a prior harvesting operation on a field; identifying a region of the field having already-harvested crop plants based on the harvest data; detecting a characteristic of crop plants in a field in a path of an agricultural harvesting machine in a direction of travel; generating , based on the detected characteristic, a height metric representing a height of the crop plants on a particular area of the field; the method being characterised in that it further comprises the steps of identifying the crop plants on the particular area of the field as downed crop based on a determination that the height metric indicates a crop height below a threshold and that the harvest data indicate that the particular area is not in an already harvested region; and generating a control signal to control the agricultural harvesting machine based on the identification of downed crop on the particular area of the field.