mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for producing a three-dimensional work piece comprising: an irradiation unit comprising at least one scanning unit configured to scan a radiation beam over an uppermost layer of raw material powder to predetermined sites of the uppermost layer of the raw material powder in order to solidify the raw material powder at the predetermined sites, wherein an axis corresponding to the radiation beam when it impinges on the uppermost layer of raw material powder at an angle of 90° is defined as a central axis for the scanning unit ; and a control unit configured to receive work piece data indicative of at least one layer of the three-dimensional work piece to be produced, and assign at least a part of a contour of the layer of the three-dimensional work piece to the at least one scanning unit , characterized in that the control unit is configured to generate control data for controlling the irradiation unit , the control data defining a scan strategy of the radiation beam such that for more than 70 % of a predefined length, the radiation beam moves away from the central axis , the predefined length being defined as a length the radiation beam moves along the contour assigned to the at least one scanning unit , excluding sections concentric with regard to the central axis . an irradiation unit comprising at least one scanning unit configured to scan a radiation beam over an uppermost layer of raw material powder to predetermined sites of the uppermost layer of the raw material powder in order to solidify the raw material powder at the predetermined sites, wherein an axis corresponding to the radiation beam when it impinges on the uppermost layer of raw material powder at an angle of 90° is defined as a central axis for the scanning unit ; and a control unit configured to receive work piece data indicative of at least one layer of the three-dimensional work piece to be produced, and assign at least a part of a contour of the layer of the three-dimensional work piece to the at least one scanning unit , receive work piece data indicative of at least one layer of the three-dimensional work piece to be produced, and assign at least a part of a contour of the layer of the three-dimensional work piece to the at least one scanning unit , characterized in that the control unit is configured to generate control data for controlling the irradiation unit , the control data defining a scan strategy of the radiation beam such that for more than 70 % of a predefined length, the radiation beam moves away from the central axis , the predefined length being defined as a length the radiation beam moves along the contour assigned to the at least one scanning unit , excluding sections concentric with regard to the central axis .
An adhesive dispensing system , comprising: a dispensing applicator for dispensing an adhesive , said dispensing applicator including a manifold with a manifold passage and a dispensing module coupled to said manifold passage ; a receiving device positioned proximate to said dispensing applicator , and a fill system configured to supply a small amount of solid adhesive periodically to the receiving device through a hose , said receiving device including a receiving chamber , which is configured to receive said small amount of solid adhesive at the location of said dispensing applicator , and an outlet that is positioned within the manifold to deliver melted adhesive from said receiving device into said manifold passage immediately after melting; a first heating device positioned proximate to said manifold and said receiving device , said first heating device operable to rapidly melt the small amount of solid adhesive in said receiving device on demand; and a second heating device positioned within said manifold and configured to apply heat energy to maintain the adhesive as a liquid in said manifold passage . a dispensing applicator for dispensing an adhesive , said dispensing applicator including a manifold with a manifold passage and a dispensing module coupled to said manifold passage ; a receiving device positioned proximate to said dispensing applicator , and a fill system configured to supply a small amount of solid adhesive periodically to the receiving device through a hose , said receiving device including a receiving chamber , which is configured to receive said small amount of solid adhesive at the location of said dispensing applicator , and an outlet that is positioned within the manifold to deliver melted adhesive from said receiving device into said manifold passage immediately after melting; a first heating device positioned proximate to said manifold and said receiving device , said first heating device operable to rapidly melt the small amount of solid adhesive in said receiving device on demand; and a second heating device positioned within said manifold and configured to apply heat energy to maintain the adhesive as a liquid in said manifold passage .
A method comprising: collecting cross-layer information associated with a software defined networking-based communication network, the cross-layer information comprising real-time traffic state information collected from two or more layers in the communication network; and determining a best protection path based on the cross-layer information; updating the present protection path set locally on the network elements with the best protection path, upon determining the present protection path set locally on the network elements is not the best one; wherein the step of updating comprises: sending one or more updates related to the best protection path to one or more network elements in the software defined networking-based communication network to control one or more local decisions comprising protection path switching made at the one or more network elements following a failure of a working path, wherein the one or more updates are based on the collected cross-layer information; wherein the method is performed by at least one processing device comprising a processor coupled to a memory . collecting cross-layer information associated with a software defined networking-based communication network, the cross-layer information comprising real-time traffic state information collected from two or more layers in the communication network; and determining a best protection path based on the cross-layer information; updating the present protection path set locally on the network elements with the best protection path, upon determining the present protection path set locally on the network elements is not the best one; wherein the step of updating comprises: sending one or more updates related to the best protection path to one or more network elements in the software defined networking-based communication network to control one or more local decisions comprising protection path switching made at the one or more network elements following a failure of a working path, wherein the one or more updates are based on the collected cross-layer information; wherein the method is performed by at least one processing device comprising a processor coupled to a memory . sending one or more updates related to the best protection path to one or more network elements in the software defined networking-based communication network to control one or more local decisions comprising protection path switching made at the one or more network elements following a failure of a working path, wherein the one or more updates are based on the collected cross-layer information; wherein the method is performed by at least one processing device comprising a processor coupled to a memory .
A method for measuring a tear meniscus using fluorescein concentrated in the tear meniscus to make it fluorescent, based on an analysis of an image obtained by implementing operations of: - instilling fluorescein on the surface of a patient's eye to be examined, - illuminating the eye to be examined with blue light , characterized in that it comprises: - capturing an image of the eye to be examined, said image comprising non-fluorescent blue regions in the absence of fluorescein and fluorescent green regions in the presence of fluorescein, - identifying the tear meniscus and measuring its height in pixels (h), - identifying the iris and measuring its outer diameter in pixels (d), - calculating a ratio (R = D/d) of a physical outer diameter (D) of the iris as estimated or else measured in millimeters to its measurement in pixels (d) and calculating the physical height (H = Rxh) of the tear meniscus based on this ratio. - instilling fluorescein on the surface of a patient's eye to be examined, - illuminating the eye to be examined with blue light , - capturing an image of the eye to be examined, said image comprising non-fluorescent blue regions in the absence of fluorescein and fluorescent green regions in the presence of fluorescein, - identifying the tear meniscus and measuring its height in pixels (h), - identifying the iris and measuring its outer diameter in pixels (d), - calculating a ratio (R = D/d) of a physical outer diameter (D) of the iris as estimated or else measured in millimeters to its measurement in pixels (d) and calculating the physical height (H = Rxh) of the tear meniscus based on this ratio.
An epigenetic method for identifying IPEX (immunodysregulation polyendocrinopathy enteropathy X-linked) syndrome and/or IPEX-like syndrome in a human subject selected from a fetus, a newborn, and a child, comprising a) analyzing the methylation status of i) at least one CpG position in the human gene Treg-specific demethylated region (TSDR) in FOXP3, and analyzing the methylation status of ii) at least one CpG position in at least one human control gene region that is specific for a CD4 and/or CD3 T cells or for all nucleated blood cells, on a blood sample, preferably a dried blood sample, comprising immune cells as obtained from said subject, b) determining a ratio of the methylation status as analyzed between i) and ii) in step a), and c) identifying IPEX and/or IPEX-like syndrome in said subject based on said ratio as determined in step b), wherein a value of the ratio of the methylation status of below a reference range of between 95% and 99% is indicative for a non-IPEX-Treg disorder, a value in said reference range is indicative for IPEX-like syndrome, and a value above said reference range is indicative for IPEX, thus distinguishing between IPEX and/or IPEX-like syndrome in said subject based on said reference range. a) analyzing the methylation status of i) at least one CpG position in the human gene Treg-specific demethylated region (TSDR) in FOXP3, and analyzing the methylation status of ii) at least one CpG position in at least one human control gene region that is specific for a CD4 and/or CD3 T cells or for all nucleated blood cells, on a blood sample, preferably a dried blood sample, comprising immune cells as obtained from said subject, b) determining a ratio of the methylation status as analyzed between i) and ii) in step a), and c) identifying IPEX and/or IPEX-like syndrome in said subject based on said ratio as determined in step b),
A lighting control system comprising: - a controller adapted to control one or more lighting devices for providing illumination of a space, to detect a trigger event and to detect a corrective user input, wherein the corrective user input is received via a user interface; and - a memory adapted to store at least a first light setting for said one or more lighting devices; wherein the controller is further adapted to cause an automatic change from the first light setting to a second light setting in response to a detected trigger event, and wherein the controller is further adapted to restore the first light setting, having been stored in the memory, in response to a corrective user input indicating to undo the automatic change from the first light setting to the second light setting, characterized in that said controller is further adapted to restore the first light setting in response to said corrective user input only if said corrective input is received within a set time period from the change from the first light setting to the second light setting. - a controller adapted to control one or more lighting devices for providing illumination of a space, to detect a trigger event and to detect a corrective user input, wherein the corrective user input is received via a user interface; and - a memory adapted to store at least a first light setting for said one or more lighting devices;
An electrode for electrolysis comprising a conductive substrate formed of a porous metal plate, and at least one catalyst layer formed on a surface of the conductive substrate, wherein the electrode for electrolysis has a thickness of more than 0.5 mm and 1.2 mm or less; and value C, which is obtained by dividing sum B of perimeters of openings of the electrode for electrolysis by opening ratio A of the electrode for electrolysis , determined as described in the description, is more than 2 mm and 5 mm or less, characterized in that the center-to-center distance SW of the openings in the minor-axis direction of a mesh is 1.5 mm or more and 2.5 mm or less; and center-to-center distance LW in the major-axis direction of the mesh is 3 mm or more and 4.5 mm or less. a conductive substrate formed of a porous metal plate, and at least one catalyst layer formed on a surface of the conductive substrate, wherein the electrode for electrolysis has a thickness of more than 0.5 mm and 1.2 mm or less; and value C, which is obtained by dividing sum B of perimeters of openings of the electrode for electrolysis by opening ratio A of the electrode for electrolysis , determined as described in the description, is more than 2 mm and 5 mm or less,
A horizontal storage module (HSM) arranged for the dry storage and containment of radioactive materials contained in canisters, the HSM comprising: a body defining a plurality of compartments configured for receiving canisters (C) containing radioactive materials, the canisters being in a horizontal orientation, wherein the compartments are arranged in a staggered configuration having a first row at a first elevation and a second row at a second elevation higher than the first elevation, and wherein a portion of one compartment in the first row is in the same horizontal axis location as a portion of one compartment in the second row , the HSM further comprising ventilation means in each of the plurality of compartments including vent paths having substantially vertical pathways.
A cytological staining solution consisting of about 0.5 g/L to about 5.0 g/L of Eosin Y; about 5 mM to about 250 mM bis-tris buffer; about 0.5 mL/L to about 2.0 mL/L polysorbate 20; about one g/L to about 20 g/L sodium chloride; about five mL/L to about 50 mL/L ethylene glycol; about 0.2 ppm to about 50 ppm of an antimicrobial agent; acetic acid; and water, wherein the solution has a pH of from 5.8 to 6.2 about 0.5 g/L to about 5.0 g/L of Eosin Y; about 5 mM to about 250 mM bis-tris buffer; about 0.5 mL/L to about 2.0 mL/L polysorbate 20; about one g/L to about 20 g/L sodium chloride; about five mL/L to about 50 mL/L ethylene glycol; about 0.2 ppm to about 50 ppm of an antimicrobial agent; acetic acid; and water, wherein the solution has a pH of from 5.8 to 6.2
A method for bidirectional communication between a command unit (BE) and a serially and electrically connected plurality of LED control units (SE1, SE2, SE3), the method comprising the following steps: - transmitting a control command as an instruction directed to all LED control units (SE1, SE2, SE3) from the command unit (BE) to the first in series connected LED control unit (SE1); - executing the transmitted control command in the LED control unit (SE1, SE2, SE3) which first received the control command and immediate passing-on of the unchanged control command to the next connected LED control unit (SE1, SE2, SE3) which did not transmit the control command, iteratively in such a way that each LED control unit (SE1, SE2, SE3) receives the same control command and executes it and immediately passes the same directly after reception before the execution or during the execution on; and - respectively returning an execution result of the control command, starting from the last serially connected LED control unit (SE3) to the respective previous unit (BE, SE1, SE2), wherein each of the plurality of LED control units (SE1, SE2) attaches its execution result to the received execution result in an iterative way such that the control unit (BE) receives the execution results of each LED control unit (SE1, SE2, SE3), characterized in that the execution result is a status information describing how the execution of the control command was performed. - transmitting a control command as an instruction directed to all LED control units (SE1, SE2, SE3) from the command unit (BE) to the first in series connected LED control unit (SE1); - executing the transmitted control command in the LED control unit (SE1, SE2, SE3) which first received the control command and immediate passing-on of the unchanged control command to the next connected LED control unit (SE1, SE2, SE3) which did not transmit the control command, iteratively in such a way that each LED control unit (SE1, SE2, SE3) receives the same control command and executes it and immediately passes the same directly after reception before the execution or during the execution on; and - respectively returning an execution result of the control command, starting from the last serially connected LED control unit (SE3) to the respective previous unit (BE, SE1, SE2), wherein each of the plurality of LED control units (SE1, SE2) attaches its execution result to the received execution result in an iterative way such that the control unit (BE) receives the execution results of each LED control unit (SE1, SE2, SE3), characterized in that the execution result is a status information describing how the execution of the control command was performed.
An injection molding apparatus comprising a clamp plate , a heated manifold , an actuator interconnected to a valve pin having an axis (A), a mold and a cooling device that cools the actuator wherein, when assembled, the clamp plate is mounted upstream of the mold , the manifold being disposed between the clamp plate and the mold , wherein the cooling device comprises: a heat transmitter comprising a proximal base or member comprised of a heat conductive material and a distal arm or member comprised of a thermally conductive material, the distal arm or member or member being mounted by one or more spring loadable interconnections on or to the proximal base or member , the distal arm or member having a distal end surface for engaging the clamp plate under a spring load and a proximal surface for transmitting heat from the proximal surface to the distal end surface , wherein the spring or spring loadable interconnection has an amount or degree of mass that renders the spring substantially non-heat conductive between the proximal and distal members, and wherein the clamp plate, the mold , the manifold, the actuator and the heat transmitter being assemblable together in an arrangement wherein the spring loadable interconnection is loaded urging the distal end surface of the distal arm or member into compressed engagement with the clamp plate at least when the manifold is heated to an elevated operating temperature characterized in that : the distal member has a proximal exterior surface that is adapted to be engaged and slidable against a complementary surface of the housing body of the actuator such that heat thermally conducts between the housing body 12, 12a and the distal arm or member . a heat transmitter comprising a proximal base or member comprised of a heat conductive material and a distal arm or member comprised of a thermally conductive material, the distal arm or member or member being mounted by one or more spring loadable interconnections on or to the proximal base or member , the distal arm or member having a distal end surface for engaging the clamp plate under a spring load and a proximal surface for transmitting heat from the proximal surface to the distal end surface , wherein the spring or spring loadable interconnection has an amount or degree of mass that renders the spring substantially non-heat conductive between the proximal and distal members, and wherein the clamp plate, the mold , the manifold, the actuator and the heat transmitter being assemblable together in an arrangement wherein the spring loadable interconnection is loaded urging the distal end surface of the distal arm or member into compressed engagement with the clamp plate at least when the manifold is heated to an elevated operating temperature characterized in that : the distal member has a proximal exterior surface that is adapted to be engaged and slidable against a complementary surface of the housing body of the actuator such that heat thermally conducts between the housing body 12, 12a and the distal arm or member .
A wearable device , comprising: a memory configured to store computer-executable instructions; and one or more processors in communication with the memory and configured to execute the computer-executable instructions to: maintain a first connection between the wearable device and a mobile phone , wherein the first connection between the wearable device and the mobile phone is configured to be persistent when the wearable device is within communication range of the mobile phone ; transmit audio content to a headset over a first peripheral connection between the wearable device and the headset , the mobile phone configured for communicating with the headset over a second peripheral connection between the mobile phone and the headset ; receive information identifying an incoming telephone call; and responsive to receiving the information identifying the incoming telephone call: transmit a notification associated with the incoming telephone call to the headset ; and suppress, at the wearable device , a ring associated with the incoming telephone call. a memory configured to store computer-executable instructions; and one or more processors in communication with the memory and configured to execute the computer-executable instructions to: maintain a first connection between the wearable device and a mobile phone , wherein the first connection between the wearable device and the mobile phone is configured to be persistent when the wearable device is within communication range of the mobile phone ; transmit audio content to a headset over a first peripheral connection between the wearable device and the headset , the mobile phone configured for communicating with the headset over a second peripheral connection between the mobile phone and the headset ; receive information identifying an incoming telephone call; and responsive to receiving the information identifying the incoming telephone call: transmit a notification associated with the incoming telephone call to the headset ; and suppress, at the wearable device , a ring associated with the incoming telephone call. maintain a first connection between the wearable device and a mobile phone , wherein the first connection between the wearable device and the mobile phone is configured to be persistent when the wearable device is within communication range of the mobile phone ; transmit audio content to a headset over a first peripheral connection between the wearable device and the headset , the mobile phone configured for communicating with the headset over a second peripheral connection between the mobile phone and the headset ; receive information identifying an incoming telephone call; and responsive to receiving the information identifying the incoming telephone call: transmit a notification associated with the incoming telephone call to the headset ; and suppress, at the wearable device , a ring associated with the incoming telephone call. transmit a notification associated with the incoming telephone call to the headset ; and suppress, at the wearable device , a ring associated with the incoming telephone call.