mhurhangee/patent-ind-claim-en huggingface dataset:
An optical beam-shaping element for shaping and homogenizing an optical beam of rays, comprising an array of microlenses which have a respective vertex, wherein the lateral positions of the microlenses in the array , with respect to the respective vertex , are predetermined on the basis of a regular pattern, wherein respective reference positions for the vertex of a respective microlens are defined by the regular pattern, wherein the reference positions each form the center of a predetermined respective distribution zone , and wherein the lateral positions are arranged within the respective distribution region in accordance with a predetermined first stochastic distribution function, and wherein the microlenses have at least one respective phase shift feature which is selected such that the microlenses produce a respective phase shift for light passing through, wherein the respective phase shifts produced by the microlenses differ from one another in accordance with at least a predetermined second stochastic distribution function, characterized in that the phase shift feature comprises the microlenses differing from one another with respect to their thickness in accordance with the second distribution function, with the difference in thickness being effected solely by addition or subtraction of a planoparallel component with respect to a reference microlens ; and in that a variation range of the thickness amounts to n / (n-1) x λ, where n is the refractive index of the microlenses and λ is a predetermined nominal wavelength for which the beam-shaping element is designed.
A method of configuring a host computing device in a process control plant to automatically perform an action or a set of actions to control a process, the method comprising: providing a field device (92-96) including a setpoint and coupled to a remote terminal unit , RTU; generating , at the host computing device, a workflow template, that includes a sequence of one or more steps (410-414) to be performed by the host computing device, wherein said generating includes user selection of at least some of the one or more steps from a set of predetermined steps corresponding to actions executable by the host computing device; creating , at the host computing device, an instance of the workflow template; generating , at the host computing device, a trigger condition to automatically trigger the instance of the workflow template; detecting the trigger condition; and executing , at the host computing device, the sequence of the one or more steps in response to detecting the trigger condition, wherein the one or more steps in the workflow template enable the host computing device to communicate with the RTU for enabling communication between the host computing device and the field device, and enable the host computing device to adjust the setpoint of the field device coupled to the RTU in response to determining, based on data received from the RTU, a change in a process parameter associated with the field device, wherein the one or more steps in the workflow template further enable the host computing device to download a configuration profile from the host computing device to the RTU in response to detecting that the RTU has lost configuration. providing a field device (92-96) including a setpoint and coupled to a remote terminal unit , RTU; generating , at the host computing device, a workflow template, that includes a sequence of one or more steps (410-414) to be performed by the host computing device, wherein said generating includes user selection of at least some of the one or more steps from a set of predetermined steps corresponding to actions executable by the host computing device; creating , at the host computing device, an instance of the workflow template; generating , at the host computing device, a trigger condition to automatically trigger the instance of the workflow template; detecting the trigger condition; and executing , at the host computing device, the sequence of the one or more steps in response to detecting the trigger condition, wherein the one or more steps in the workflow template enable the host computing device to communicate with the RTU for enabling communication between the host computing device and the field device, and enable the host computing device to adjust the setpoint of the field device coupled to the RTU in response to determining, based on data received from the RTU, a change in a process parameter associated with the field device, wherein the one or more steps in the workflow template further enable the host computing device to download a configuration profile from the host computing device to the RTU in response to detecting that the RTU has lost configuration.
An electronic motion detection device , comprising: - a support structure securable to a wall, - a spherical body associated with the support structure and rotationally supported by the support structure , the spherical body being lockable to the support structure according to a plurality of spatial orientations, the spherical body having a seat , - a detection member insertable into the seat of the spherical body along an insertion direction (X-X), the detection member comprising a sensitive element configured for detecting the movement of a body in a location and an interface configured for exchanging configuration data for the sensitive element, wherein the detection member is lockable to the seat of the spherical body in an operating position and in a configuration position, wherein: - in the operating position, the spherical body and the detection member are arranged so as to prevent a user from accessing the interface , - characterised in that , in the configuration position, the detection member is translationally shifted in the insertion direction (X-X) with respect to the operating position so as to make the interface accessible by a user. - a support structure securable to a wall, - a spherical body associated with the support structure and rotationally supported by the support structure , the spherical body being lockable to the support structure according to a plurality of spatial orientations, the spherical body having a seat , - a detection member insertable into the seat of the spherical body along an insertion direction (X-X), the detection member comprising a sensitive element configured for detecting the movement of a body in a location and an interface configured for exchanging configuration data for the sensitive element, wherein the detection member is lockable to the seat of the spherical body in an operating position and in a configuration position, wherein: - in the operating position, the spherical body and the detection member are arranged so as to prevent a user from accessing the interface , - characterised in that , in the configuration position, the detection member is translationally shifted in the insertion direction (X-X) with respect to the operating position so as to make the interface accessible by a user.
A system for reducing gaseous microemboli, the system comprising a fluid source ; a flow diverter fluidly connected to the fluid source , an oxygenator fluidly connected to the flow diverter , wherein the oxygenator is configured to oxygenate the fluid from the fluid source ; a bypass line or a non-gas exchange shunt channel through the oxygenator fluidly connected to the flow diverter 30; an inflow flow controller fluidly connected to the fluid source and to the flow diverter , wherein the inflow flow controller is between the fluid source and the flow diverter and is configured to control the flow rate of fluid from the fluid source to the flow diverter , wherein the flow diverter is configured to divert a portion of the fluid from the fluid source to the oxygenator and another portion of the fluid from the fluid source to the bypass line or to the non-gas exchange shunt channel through the oxygenator; a filter in fluid communication with the bypass line or the non-gas exchange shunt channel, wherein the filter removes gaseous microemboli from the fluid in the bypass line or the non-gas exchange shunt channel, the gaseous microemboli having a diameter greater than a stated pore size; an outlet fluidly connected to the oxygenator and the bypass line or the non-gas exchange shunt channel, and configured to combine the fluid from the bypass line and the oxygenator or from the non-gas exchange shunt channel and the oxygenator; and a controller configured to control the inflow flow controller . a fluid source ; a flow diverter fluidly connected to the fluid source , an oxygenator fluidly connected to the flow diverter , wherein the oxygenator is configured to oxygenate the fluid from the fluid source ; a bypass line or a non-gas exchange shunt channel through the oxygenator fluidly connected to the flow diverter 30; an inflow flow controller fluidly connected to the fluid source and to the flow diverter , wherein the inflow flow controller is between the fluid source and the flow diverter and is configured to control the flow rate of fluid from the fluid source to the flow diverter , wherein the flow diverter is configured to divert a portion of the fluid from the fluid source to the oxygenator and another portion of the fluid from the fluid source to the bypass line or to the non-gas exchange shunt channel through the oxygenator; a filter in fluid communication with the bypass line or the non-gas exchange shunt channel, wherein the filter removes gaseous microemboli from the fluid in the bypass line or the non-gas exchange shunt channel, the gaseous microemboli having a diameter greater than a stated pore size; an outlet fluidly connected to the oxygenator and the bypass line or the non-gas exchange shunt channel, and configured to combine the fluid from the bypass line and the oxygenator or from the non-gas exchange shunt channel and the oxygenator; and a controller configured to control the inflow flow controller .
System for arranging launch tubes in a submarine, wherein the system comprises a plurality of modularly assemblable receiver units for respectively receiving a launch tube , wherein, in an assembled state, a plurality of receiver units are arranged next to one another along a direction extending perpendicularly to the longitudinal side of the launch tubes and are connected to one another in a positionally fixed manner via a connection element, characterized in that the receiver units each comprise a first plate and a second plate , wherein, in the assembled state, the launch tube is arranged between the first plate and the second plate , wherein a plurality of first plates of the receiver units and/or a plurality of second plates of the receiver units are arranged next to one another and lying against one another.
A method of manufacturing a flexible LED module , comprising the steps of - providing a translucent flexible encapsulant comprising a number of layers to enclose a number of LEDs of the LED module ; - after providing the encapsulant to enclose the number of LEDs, modifying the surface structure of an outer surface of a layer to form at least one dense scattering region (P d ) corresponding to the position of an LED of the LED module ; to form at least one sparse scattering region (P s ) that does not correspond to the position of an LED of the LED module ; and to form a transition scattering region (P t ) between a dense scattering region (P d ) and a sparse scattering region (P s ) characterized in that the surface structure of the outer surface of the layer is modified in the outer surface of that layer. - providing a translucent flexible encapsulant comprising a number of layers to enclose a number of LEDs of the LED module ; - after providing the encapsulant to enclose the number of LEDs, modifying the surface structure of an outer surface of a layer to form at least one dense scattering region (P d ) corresponding to the position of an LED of the LED module ; to form at least one sparse scattering region (P s ) that does not correspond to the position of an LED of the LED module ; and to form a transition scattering region (P t ) between a dense scattering region (P d ) and a sparse scattering region (P s ) characterized in that the surface structure of the outer surface of the layer is modified in the outer surface of that layer.
A non-transitory computer-readable data storage medium storing computer-executable code which, when executed by logic of a replaceable item causes the logic to perform a method comprising: in response to receiving a request for an authentication value of a plurality of authentication values of the replaceable item from a host device to which the replaceable item has been connected, determining whether the replaceable item previously sent the authentication value ; in response to determining that the authentication value was previously sent, sending the authentication value to the host device; in response to determining that the authentication value was not previously sent, determining whether the replaceable item previously sent a maximum number of unique authentication values of the authentication values , the maximum number of unique authentication values less than a total number of the authentication values ; in response to determining that the maximum number of unique authentication values has not been sent, sending the authentication value to the host device; and in response to determining that the maximum number of unique authentication values has been sent, refusing to send the authentication value to the host device; in response to receiving a request for all hash values corresponding to all the authentication values of the replaceable item from a host device to which the replaceable item has been connected, providing all the hash values. in response to receiving a request for an authentication value of a plurality of authentication values of the replaceable item from a host device to which the replaceable item has been connected, determining whether the replaceable item previously sent the authentication value ; in response to determining that the authentication value was previously sent, sending the authentication value to the host device; in response to determining that the authentication value was not previously sent, determining whether the replaceable item previously sent a maximum number of unique authentication values of the authentication values , the maximum number of unique authentication values less than a total number of the authentication values ; in response to determining that the maximum number of unique authentication values has not been sent, sending the authentication value to the host device; and in response to determining that the maximum number of unique authentication values has been sent, refusing to send the authentication value to the host device; in response to receiving a request for all hash values corresponding to all the authentication values of the replaceable item from a host device to which the replaceable item has been connected, providing all the hash values.
An actuator for setting and maintaining a desired position of a component such as a rotor blade, a crane tower, a superstructure and the like, having a drive source for adjusting the component via at least two mutually meshing drive elements , of which at least one is driven from the drive source and of which the other forms a drive element that is connectable to the component; and having a lubrication apparatus associated with at least one drive element for lubricating the drive elements , also in a stationary position, characterized in that at least one lubricant passage is guided through at least one of the drive elements for supplying lubricant to at least one meshing tooth pair and opens into a dedendum region of the drive element , with the lubrication apparatus having a distributor having at least one supply passage that is connectable to the at least one lubricant passage in the at least one drive element , with the drive element being movable relative to the distributor such that the at least one lubricant passage of the at least one drive element is connected to the at least one supply passage of the distributor or is cut off from the at least one named supply passage of the distributor in dependence on the position of the drive element relative to the distributor .
A capacitive sense cord comprising: a cable ; a cable jacket configured to cover the cable; and the cord being characterised in a plurality of sensing wires disposed inside the cable jacket and around the cable throughout first and second portions of the cord, the first portion of the cord including the plurality of sensing wires disposed proximate to a surface of the cord and positioned lengthwise along the cord to form a rotation input device configured to be capacitively sensitive to touch input, the rotation input device configured to enable rotational input based on a pattern of change in capacitance values corresponding to at least a subset of the plurality of sensing wires in the rotation input device; and the second portion of the cord configured to be insensitive to touch input based on the plurality of sensing wires being twisted around one another within the second portion. a cable ; a cable jacket configured to cover the cable; and the cord being characterised in a plurality of sensing wires disposed inside the cable jacket and around the cable throughout first and second portions of the cord, the first portion of the cord including the plurality of sensing wires disposed proximate to a surface of the cord and positioned lengthwise along the cord to form a rotation input device configured to be capacitively sensitive to touch input, the rotation input device configured to enable rotational input based on a pattern of change in capacitance values corresponding to at least a subset of the plurality of sensing wires in the rotation input device; and the second portion of the cord configured to be insensitive to touch input based on the plurality of sensing wires being twisted around one another within the second portion.
A culture medium being serum-free comprising an IL6RIL6 chimera at a concentration range of 50-200 picogram per milliliter (pg/ml) and basic fibroblast growth factor (bFGF), wherein the culture medium is capable of maintaining pluripotent stem cells in an undifferentiated state in the absence of feeder cell support.
A method of differentiation-inducing a pluripotent stem cell derived from a mammal into a metanephric nephron progenitor cell, the method comprising the following three steps: (a) a step of culturing an embryoid body which has been induced from the pluripotent stem cell in a culture medium containing Bmp, and Wnt agonist at a concentration A of the Wnt agonist of 6 to 20 μM, (b) a step of culturing the embryoid body in a culture medium containing Bmp, activin and retinoic acid, and Wnt agonist at a concentration B of the Wnt agonist of 2 to 6 μM, and (c) a step of culturing the embryoid body in a culture medium containing Fgf, and Wnt agonist at a concentration C of the Wnt agonist of 0.5 to 2 μM, in this order, wherein a concentration of the Wnt agonist is concentration A >concentration B>concentration C, and the concentration A is at least five times of the concentration C, and wherein the concentration A is at least two times of the concentration B, and the concentration B is at least two times of the concentration C. (a) a step of culturing an embryoid body which has been induced from the pluripotent stem cell in a culture medium containing Bmp, and Wnt agonist at a concentration A of the Wnt agonist of 6 to 20 μM, (b) a step of culturing the embryoid body in a culture medium containing Bmp, activin and retinoic acid, and Wnt agonist at a concentration B of the Wnt agonist of 2 to 6 μM, and (c) a step of culturing the embryoid body in a culture medium containing Fgf, and Wnt agonist at a concentration C of the Wnt agonist of 0.5 to 2 μM, in this order, wherein a concentration of the Wnt agonist is concentration A >concentration B>concentration C, and the concentration A is at least five times of the concentration C, and wherein the concentration A is at least two times of the concentration B, and the concentration B is at least two times of the concentration C.
A system for compressed data storage using a neural network comprising: a memory comprising a plurality of memory locations (101a...n) configured to store data; a query neural network configured to process a representation of an input data item to generate a query ; an immutable key data store comprising key data for indexing the plurality of memory locations (101a...n), wherein the key data comprises data defining a plurality of randomly generated keys for indexing the plurality of memory locations (101a...n), wherein the plurality of keys are immutable after generation; an addressing system configured to process the key data and the query to generate a weighting associated with the plurality of memory locations (101a...n); a memory read system configured to generate output memory data from the memory based upon the generated weighting associated with the plurality of memory locations (101a...n) and the data stored at the plurality of memory locations (101a...n); and a memory write system configured to write received write data to the memory based upon the generated weighting associated with the plurality of memory locations (101a...n). a memory comprising a plurality of memory locations (101a...n) configured to store data; a query neural network configured to process a representation of an input data item to generate a query ; an immutable key data store comprising key data for indexing the plurality of memory locations (101a...n), wherein the key data comprises data defining a plurality of randomly generated keys for indexing the plurality of memory locations (101a...n), wherein the plurality of keys are immutable after generation; an addressing system configured to process the key data and the query to generate a weighting associated with the plurality of memory locations (101a...n); a memory read system configured to generate output memory data from the memory based upon the generated weighting associated with the plurality of memory locations (101a...n) and the data stored at the plurality of memory locations (101a...n); and a memory write system configured to write received write data to the memory based upon the generated weighting associated with the plurality of memory locations (101a...n).
A method for generating an anonymized image of a private space, the method comprising: analysing an image of the private space to determine an image scene category; and generating an anonymized image based on the determined image scene category by applying a morphing model to the image of the private space as a whole, such that the anonymised image is between the image of the private space and a generic image associated with the identified scene category. analysing an image of the private space to determine an image scene category; and generating an anonymized image based on the determined image scene category by applying a morphing model to the image of the private space as a whole, such that the anonymised image is between the image of the private space and a generic image associated with the identified scene category.