mhurhangee/ep-ind-claims huggingface dataset:
A method for the production of cell sheets comprising at least two different cell types, said method comprising the steps of: a) providing a continuous cell sheet which is disposed on a thermo-responsive hydrogel; b) exposing said continuous cell sheet to a releasing agent in a patterned fashion wherein the releasing agent is an enzyme; c) washing the cell sheet after exposure to the releasing agent in order to remove cells which have been affected by the releasing agent; d) repopulating the gaps remaining after the cells which have been affected by the releasing agent have been removed with a second cell type; and e) releasing the thus obtained cell sheet by changing the temperature. a) providing a continuous cell sheet which is disposed on a thermo-responsive hydrogel; b) exposing said continuous cell sheet to a releasing agent in a patterned fashion wherein the releasing agent is an enzyme; c) washing the cell sheet after exposure to the releasing agent in order to remove cells which have been affected by the releasing agent; d) repopulating the gaps remaining after the cells which have been affected by the releasing agent have been removed with a second cell type; and e) releasing the thus obtained cell sheet by changing the temperature.
An ultrashort pulse duration laser-based Fiber Bragg Grating, FBG, writing system for writing a FBG in a coated optical fiber, the electromagnetic radiation of the ultrashort pulse duration laser-based FBG writing system having a pulse duration of less than or equal to 5 picoseconds, and the wavelength of the electromagnetic radiation having a characteristic wavelength, to which a coating of the coated optical fiber is transparent, in the wavelength range from 150 nm to 3.0 microns, the ultrashort pulse duration laser-based FBG writing system comprising an alignment system, the alignment system comprising: a holder configured to hold the coated optical fiber in a position perpendicular to a beam path of an ultrashort pulse duration laser-based FBG writing station; an optical detector; and a control system with an input from the optical detector and an output to adjust parameters of an optical writing source and the ultrashort pulse duration laser-based FBG writing station based on non-linear photoluminescence generated in the coated optical fiber as indicated in a signal received at the input from the optical detector. a holder configured to hold the coated optical fiber in a position perpendicular to a beam path of an ultrashort pulse duration laser-based FBG writing station; an optical detector; and a control system with an input from the optical detector and an output to adjust parameters of an optical writing source and the ultrashort pulse duration laser-based FBG writing station based on non-linear photoluminescence generated in the coated optical fiber as indicated in a signal received at the input from the optical detector.
A method for controlling transmission of sensitive data comprising the steps, performed within a scripting environment, of: associating an indication of origin with a first data element; propagating the indication of origin to a generated data element, wherein the generated data element is generated from the first data element, and wherein the step of propagating comprises: identifying a set of one or more inputs to a scripting operation that generates one or more outputs; identifying any indications of origin that are associated with the one or more inputs; deriving secondary indications of origin from the inputs' indications of origin; and saving the secondary indications of origin in association with the one or more generated outputs; and restricting transmission of the first data element and said generated data element to only permitted destinations that are identified with reference to the indications of origin, wherein the step of associating the indication of origin with the first data element and the step of restricting transmission of the first data element and the generated data element are performed in response to determining that the first data element comprises sensitive data. associating an indication of origin with a first data element; propagating the indication of origin to a generated data element, wherein the generated data element is generated from the first data element, and wherein the step of propagating comprises: identifying a set of one or more inputs to a scripting operation that generates one or more outputs; identifying any indications of origin that are associated with the one or more inputs; deriving secondary indications of origin from the inputs' indications of origin; and saving the secondary indications of origin in association with the one or more generated outputs; and restricting transmission of the first data element and said generated data element to only permitted destinations that are identified with reference to the indications of origin, wherein the step of associating the indication of origin with the first data element and the step of restricting transmission of the first data element and the generated data element are performed in response to determining that the first data element comprises sensitive data. identifying a set of one or more inputs to a scripting operation that generates one or more outputs; identifying any indications of origin that are associated with the one or more inputs; deriving secondary indications of origin from the inputs' indications of origin; and saving the secondary indications of origin in association with the one or more generated outputs; and restricting transmission of the first data element and said generated data element to only permitted destinations that are identified with reference to the indications of origin, wherein the step of associating the indication of origin with the first data element and the step of restricting transmission of the first data element and the generated data element are performed in response to determining that the first data element comprises sensitive data.
A flexible tactile sensor comprising: a polymer layer; a first metal layer formed on an upper surface of the polymer layer, a first sensor layer formed on an upper surface of the first metal layer and including a strain gauge (132a, 134a, 510, 520, 610, 620) changing in a resistance value according to strain and a metal wire (132b, 134b) for outputting a sensing value connected to the strain gauge (132a, 134a, 510, 520, 610, 620); a first cover layer in polyester and protecting the first sensor layer; a second metal layer formed on a lower surface of the polymer layer; a second sensor layer formed on a lower surface of the second metal layer and including a strain gauge (136a, 138a) changing in a resistance value according to strain and a metal wire (136b, 138b) for outputting a sensing value connected to the strain gauge (136a, 138a); a second cover layer in polyester and protecting the second sensor layer, the first sensor layer including: a first strain gauge (132a, 510, 610) configured to output a first sensing value via a first metal wire connected to each of the ends of the first strain gauge (132a, 510, 610); and a second strain gauge (134a, 520, 620) configured to output a second sensing value for correcting the first sensing value via a second metal wire connected to each of the ends of the second strain gauge (134a, 520, 620). a polymer layer; a first metal layer formed on an upper surface of the polymer layer, a first sensor layer formed on an upper surface of the first metal layer and including a strain gauge (132a, 134a, 510, 520, 610, 620) changing in a resistance value according to strain and a metal wire (132b, 134b) for outputting a sensing value connected to the strain gauge (132a, 134a, 510, 520, 610, 620); a first cover layer in polyester and protecting the first sensor layer; a second metal layer formed on a lower surface of the polymer layer; a second sensor layer formed on a lower surface of the second metal layer and including a strain gauge (136a, 138a) changing in a resistance value according to strain and a metal wire (136b, 138b) for outputting a sensing value connected to the strain gauge (136a, 138a); a second cover layer in polyester and protecting the second sensor layer, the first sensor layer including: a first strain gauge (132a, 510, 610) configured to output a first sensing value via a first metal wire connected to each of the ends of the first strain gauge (132a, 510, 610); and a second strain gauge (134a, 520, 620) configured to output a second sensing value for correcting the first sensing value via a second metal wire connected to each of the ends of the second strain gauge (134a, 520, 620). a first strain gauge (132a, 510, 610) configured to output a first sensing value via a first metal wire connected to each of the ends of the first strain gauge (132a, 510, 610); and a second strain gauge (134a, 520, 620) configured to output a second sensing value for correcting the first sensing value via a second metal wire connected to each of the ends of the second strain gauge (134a, 520, 620).
A method, comprising: determining a print substance usage parameter based on a signal provided from a sensor operably coupled to a refillable reservoir in a printing device; and dynamically adjusting at least one of an upper and a lower fill level of the refillable reservoir based on the print substance usage parameter. determining a print substance usage parameter based on a signal provided from a sensor operably coupled to a refillable reservoir in a printing device; and dynamically adjusting at least one of an upper and a lower fill level of the refillable reservoir based on the print substance usage parameter.
A method comprising: establishing a control connection between a two-way active measurement protocol (TWAMP) control client on a first network device in a network and a TWAMP server on a second network device in the network; negotiating, by the TWAMP control client, a data session for a given service supported at the TWAMP server, the negotiation including selecting one or more service key performance indicators (KPIs) to be measured for the given service; establishing, by the TWAMP control client, the data session for the given service with the TWAMP server wherein establishing the data session for the given service comprises sending, by the TWAMP control client to a TWAMP session initiator on a third network device, a set of TWAMP control messages instructing the TWAMP session initiator to establish the data session for the given service with the TWAMP server on the second network device; sending, by the TWAMP session initiator, one or more TWAMP test packets to the TWAMP server over the data session for the given service; and sending, by the TWAMP server in response to the one or more TWAMP test packets, service data measurements for the selected service KPIs for the given service over the data session to the TWAMP session initiator. establishing a control connection between a two-way active measurement protocol (TWAMP) control client on a first network device in a network and a TWAMP server on a second network device in the network; negotiating, by the TWAMP control client, a data session for a given service supported at the TWAMP server, the negotiation including selecting one or more service key performance indicators (KPIs) to be measured for the given service; establishing, by the TWAMP control client, the data session for the given service with the TWAMP server wherein establishing the data session for the given service comprises sending, by the TWAMP control client to a TWAMP session initiator on a third network device, a set of TWAMP control messages instructing the TWAMP session initiator to establish the data session for the given service with the TWAMP server on the second network device; sending, by the TWAMP session initiator, one or more TWAMP test packets to the TWAMP server over the data session for the given service; and sending, by the TWAMP server in response to the one or more TWAMP test packets, service data measurements for the selected service KPIs for the given service over the data session to the TWAMP session initiator.
Rotary joint, comprising: an outer shell segment having the outer shape of a solid of revolution, the outer shell segment having a plurality of openings arranged in the outer surface; and a plurality of strut holding fixtures, the strut holding fixtures having a hollow interior and a flange portion, wherein each of the strut holding fixtures is arranged in one of the plurality of openings, characterised in that it comprises an inner shell segment having the outer shape of the solid of revolution of the outer shell segment, the inner shell segment being aligned concentrically with the outer shell segment and spaced apart from the outer shell segment by a compensation gap, and in that the flange portion extends within the compensation gap between the inner shell segment and the outer shell segment in each case. an outer shell segment having the outer shape of a solid of revolution, the outer shell segment having a plurality of openings arranged in the outer surface; and a plurality of strut holding fixtures, the strut holding fixtures having a hollow interior and a flange portion, wherein each of the strut holding fixtures is arranged in one of the plurality of openings, characterised in that it comprises an inner shell segment having the outer shape of the solid of revolution of the outer shell segment, the inner shell segment being aligned concentrically with the outer shell segment and spaced apart from the outer shell segment by a compensation gap, and in that the flange portion extends within the compensation gap between the inner shell segment and the outer shell segment in each case.
An orthopaedic prosthetic component, comprising: a base, a fixation peg extending away from the base to a distal tip, the fixation peg including a porous three-dimensional structure configured to permit bone in-growth, the porous three-dimensional structure having an outer surface boundary, characterized in that: the fixation peg includes a plurality of plates attached to the porous three-dimensional structure at the outer surface boundary, each plate including a tapered body having an outer wall that faces away from the porous three-dimensional structure and is devoid of any openings; the tapered body of each plate extends from a proximal end to a distal end, and the tapered body of each plate has a first thickness at the distal end and a second thickness greater than the first thickness between the proximal end and the distal end; each plate extends circumferentially around the porous three-dimensional structure; wherein adjacent plates of the plurality of plates are spaced apart from each other on the porous three-dimensional structure in a proximal-distal direction. a base, a fixation peg extending away from the base to a distal tip, the fixation peg including a porous three-dimensional structure configured to permit bone in-growth, the porous three-dimensional structure having an outer surface boundary, characterized in that: the fixation peg includes a plurality of plates attached to the porous three-dimensional structure at the outer surface boundary, each plate including a tapered body having an outer wall that faces away from the porous three-dimensional structure and is devoid of any openings; the tapered body of each plate extends from a proximal end to a distal end, and the tapered body of each plate has a first thickness at the distal end and a second thickness greater than the first thickness between the proximal end and the distal end; each plate extends circumferentially around the porous three-dimensional structure; wherein adjacent plates of the plurality of plates are spaced apart from each other on the porous three-dimensional structure in a proximal-distal direction. the fixation peg includes a plurality of plates attached to the porous three-dimensional structure at the outer surface boundary, each plate including a tapered body having an outer wall that faces away from the porous three-dimensional structure and is devoid of any openings; the tapered body of each plate extends from a proximal end to a distal end, and the tapered body of each plate has a first thickness at the distal end and a second thickness greater than the first thickness between the proximal end and the distal end; each plate extends circumferentially around the porous three-dimensional structure; wherein adjacent plates of the plurality of plates are spaced apart from each other on the porous three-dimensional structure in a proximal-distal direction.
A method of fabricating a bipolar battery plate for a bipolar battery, said method comprising: providing a frame; positioning a substrate within the frame, the substrate having insulative plastic with conductive particles homogeneously dispersed throughout the insulative plastic and exposed along surface of the substrate; positioning a first lead layer on one side of the substrate within the frame; positioning a second lead layer on another side of the substrate within the frame, the first and second lead layer electrically connected to each other through the conductive particles; positioning a positive active material on a surface of the first lead layer after the first lead layer is positioned on the substrate; and positioning a negative active material on a surface of the second lead layer after the second lead layer is positioned on the substrate. providing a frame; positioning a substrate within the frame, the substrate having insulative plastic with conductive particles homogeneously dispersed throughout the insulative plastic and exposed along surface of the substrate; positioning a first lead layer on one side of the substrate within the frame; positioning a second lead layer on another side of the substrate within the frame, the first and second lead layer electrically connected to each other through the conductive particles; positioning a positive active material on a surface of the first lead layer after the first lead layer is positioned on the substrate; and positioning a negative active material on a surface of the second lead layer after the second lead layer is positioned on the substrate.
An accommodating intraocular lens system, comprising: an accommodating structure (140; 1410; 1510) including a first optical component (110; 1410; 1510), a second optical component (150; 1450; 1550) posterior of the first optical component, an inner fluid chamber between the first and second optical components, and an outer fluid reservoir (103; 1403) fluidically coupled to the inner fluid chamber, wherein the outer fluid reservoir (103; 1403) is around at least a portion of the inner fluid chamber and configured to interface with a native eye capsule such that fluid flows between the outer fluid reservoir (103; 1403) and the inner fluid chamber to move the first optical element for providing accommodation; and a fixed lens (130; 1430; 1530) detachably coupled to the accommodating structure such that the fixed lens (130; 1430; 1530) is anterior of the first optical component (110; 1410; 1510), wherein the fixed lens (103; 1430; 1530) has a fixed optical power. an accommodating structure (140; 1410; 1510) including a first optical component (110; 1410; 1510), a second optical component (150; 1450; 1550) posterior of the first optical component, an inner fluid chamber between the first and second optical components, and an outer fluid reservoir (103; 1403) fluidically coupled to the inner fluid chamber, wherein the outer fluid reservoir (103; 1403) is around at least a portion of the inner fluid chamber and configured to interface with a native eye capsule such that fluid flows between the outer fluid reservoir (103; 1403) and the inner fluid chamber to move the first optical element for providing accommodation; and a fixed lens (130; 1430; 1530) detachably coupled to the accommodating structure such that the fixed lens (130; 1430; 1530) is anterior of the first optical component (110; 1410; 1510), wherein the fixed lens (103; 1430; 1530) has a fixed optical power.
A robotic system comprising: a linkage coupled to a joint; a drive or brake system coupled to the joint; and a joint sensor configured to sense torques applied to the joint by manual efforts of a user; a manipulator coupled to linkage; and a processor, characterized in that the processor is configured to: transmit signals to the drive or brake system so as to inhibit manual articulation of the linkage by the user from a first pose in response to a first manual effort by the user against the linkage being below a desired articulation threshold; alter the signals in response to a second manual effort by the user to articulate the linkage exceeding the desired articulation threshold, wherein the altered signals are configured to facilitate a manual movement of the linkage from the first pose toward a second pose by the user; and inhibit, in response to a mounting of a cannula to the manipulator, manual articulation of the joint by the user with the second manual effort to articulate the linkage exceeding the desired articulation threshold, wherein the mounting of the cannula is determined based on signals transmitted by the manipulator. a linkage coupled to a joint; a drive or brake system coupled to the joint; and a joint sensor configured to sense torques applied to the joint by manual efforts of a user; a manipulator coupled to linkage; and a processor, characterized in that the processor is configured to: transmit signals to the drive or brake system so as to inhibit manual articulation of the linkage by the user from a first pose in response to a first manual effort by the user against the linkage being below a desired articulation threshold; alter the signals in response to a second manual effort by the user to articulate the linkage exceeding the desired articulation threshold, wherein the altered signals are configured to facilitate a manual movement of the linkage from the first pose toward a second pose by the user; and inhibit, in response to a mounting of a cannula to the manipulator, manual articulation of the joint by the user with the second manual effort to articulate the linkage exceeding the desired articulation threshold, wherein the mounting of the cannula is determined based on signals transmitted by the manipulator. transmit signals to the drive or brake system so as to inhibit manual articulation of the linkage by the user from a first pose in response to a first manual effort by the user against the linkage being below a desired articulation threshold; alter the signals in response to a second manual effort by the user to articulate the linkage exceeding the desired articulation threshold, wherein the altered signals are configured to facilitate a manual movement of the linkage from the first pose toward a second pose by the user; and inhibit, in response to a mounting of a cannula to the manipulator, manual articulation of the joint by the user with the second manual effort to articulate the linkage exceeding the desired articulation threshold, wherein the mounting of the cannula is determined based on signals transmitted by the manipulator.
A method for inserting of a weft thread (2, 3, 4) on an air-jet weaving loom wherein an insertion parameter is determined, and at least one first control parameter for an insertion of a weft thread (2, 3, 4), by means of which a supply of compressed air can be controlled, is adapted according to a first algorithm and/or at least one second control parameter for a weaving cycle, by means of which a rotational speed of the air-jet weaving loom can be controlled, is adapted according to a second algorithm, characterized in that the method comprises a selection of which of the at least one first control parameter for an insertion or the at least one second control parameter for a weaving cycle are to be varied, wherein the selection takes account of a set basic value for the first and second control parameters and of limit values between which these first and second control parameters should lie.