mhurhangee/ep-ind-claims huggingface dataset:
A golf ball, comprising: a core; a moisture barrier layer, and a cover; wherein the moisture barrier layer comprises a blend of thermoplastic polyurethane and hydrophobic, semi-crystalline, thermoplastic polyurethane; wherein the hydrophobic thermoplastic polyurethane comprises the reaction product of a hydrophobic polyol, a polyisocyanate, and a linear chain extender containing 5 carbon atoms or 7 to 12 carbon atoms; wherein the hydrophobic polyol has a number average molecular weight which is within the range of about 1,000 to about 4,000; wherein the hydrophobic, semi-crystalline, thermoplastic polyurethane has a weight average molecular weight which is within the range of 50,000 to 1,000,000; and wherein the hydrophobic, semi-crystalline, thermoplastic polyurethane has a melting point which is within the range of 80°C to 150°C. a core; a moisture barrier layer, and a cover; wherein the moisture barrier layer comprises a blend of thermoplastic polyurethane and hydrophobic, semi-crystalline, thermoplastic polyurethane; wherein the hydrophobic thermoplastic polyurethane comprises the reaction product of a hydrophobic polyol, a polyisocyanate, and a linear chain extender containing 5 carbon atoms or 7 to 12 carbon atoms; wherein the hydrophobic polyol has a number average molecular weight which is within the range of about 1,000 to about 4,000; wherein the hydrophobic, semi-crystalline, thermoplastic polyurethane has a weight average molecular weight which is within the range of 50,000 to 1,000,000; and wherein the hydrophobic, semi-crystalline, thermoplastic polyurethane has a melting point which is within the range of 80°C to 150°C.
A first device for data propagation in a Distributed Node Consensus Protocol (DNCP) network, the first device comprising: an interface configured to: publish node data comprising data, a data identifier and a sequence number; provide the node data to requesting devices (120, 130) in the DNCP network; and receive acknowledgments of reception of the node data from the requesting devices (120, 130), each acknowledgment comprising the data identifier and the sequence number of the node data; and at least one processor configured to determine that the node data has propagated through the network in case the smallest sequence number in the received acknowledgments is at least equal to the sequence number of the node data. publish node data comprising data, a data identifier and a sequence number; provide the node data to requesting devices (120, 130) in the DNCP network; and receive acknowledgments of reception of the node data from the requesting devices (120, 130), each acknowledgment comprising the data identifier and the sequence number of the node data; and at least one processor configured to determine that the node data has propagated through the network in case the smallest sequence number in the received acknowledgments is at least equal to the sequence number of the node data.
Wind turbine, comprising a tower which has an access door, characterized in that the access door has a door lock and, on an outer side, a baffle plate which extends substantially over the entire surface of the access door and has a recess, wherein a doorknob is provided in the region of the recess, wherein an outer side of the baffle plate at least partially projects outwards beyond the door lock, wherein the access door has, on an inner side, a grid consisting of vertical and horizontal struts (321, 322; 320).
A method of requesting registration (28; 54; 72) of stationary user equipment, being stationary with respect to a limited geographical area, in a cellular telecommunication system (20, 51), said system (12; 20; 51) comprising at least one support node (23; 52, 53; 81) for providing communication services to a plurality of users comprising mobile and stationary user equipment, each user equipment having a unique equipment identity, wherein said method comprises the steps of: - receiving, by a support node (23; 52, 53; 81), a registration request (28; 54; 72) of user equipment, said registration request (28; 54; 72) comprising equipment identity and location associated with said user equipment, - determining (35; 73), by said support node (23; 52, 53; 81), whether said user equipment is stationary user equipment, - comparing, by said support node (23; 52, 53; 81), said received location information and equipment identity of said stationary user equipment with location information and equipment identity of said stationary user equipment stored in said telecommunication system to determine whether said stationary user equipment has left said predefined limited geographical area, - rejecting (61; 77), by said support node (23; 52, 53; 81), said registration request (28; 54; 72) if said comparison does not match (75 No), and - accepting (33; 76), by said support node (23; 52, 53; 81), said registration request (28; 54; 72) if said comparison matches (75 Yes). - receiving, by a support node (23; 52, 53; 81), a registration request (28; 54; 72) of user equipment, said registration request (28; 54; 72) comprising equipment identity and location associated with said user equipment, - determining (35; 73), by said support node (23; 52, 53; 81), whether said user equipment is stationary user equipment, - comparing, by said support node (23; 52, 53; 81), said received location information and equipment identity of said stationary user equipment with location information and equipment identity of said stationary user equipment stored in said telecommunication system to determine whether said stationary user equipment has left said predefined limited geographical area, - rejecting (61; 77), by said support node (23; 52, 53; 81), said registration request (28; 54; 72) if said comparison does not match (75 No), and - accepting (33; 76), by said support node (23; 52, 53; 81), said registration request (28; 54; 72) if said comparison matches (75 Yes).
A method for setting up a controller of an orthopedic device comprising at least one motor drive, which is placed against a body part of a patient and connected to sensors that record control signals of the patient, including the following steps: outputting an optical, acoustic, and/or tactile representation of an actuation of a limb as a prompt for the patient to carry out this activity; capturing control signals produced as a deliberate reaction by the patient after being prompted, assigning the captured control signals to the activity carried out and to a function, within the scope of which the at least one motor drive is activated, deactivated, or reversed in terms of its direction of rotation, and outputting the captured control signals and/or the function after the assignment to the respective function. outputting an optical, acoustic, and/or tactile representation of an actuation of a limb as a prompt for the patient to carry out this activity; capturing control signals produced as a deliberate reaction by the patient after being prompted, assigning the captured control signals to the activity carried out and to a function, within the scope of which the at least one motor drive is activated, deactivated, or reversed in terms of its direction of rotation, and outputting the captured control signals and/or the function after the assignment to the respective function.
Method for electrodynamic braking of a universal motor, having the following steps during a braking operation: - continuously ascertaining a rotational speed of the universal motor; - temporarily, periodically short-circuiting an armature of the universal motor by means of a semiconductor switch, wherein firing angles of the semiconductor switch are regulated by means of a regulating device in such a way that, in order to achieve a minimal deviation of the ascertained rotational speed from a rotational speed of a target rotational speed profile, depending on the deviation, a defined firing angle is added to or subtracted from the set firing angle, wherein, in the case that the deviation between the ascertained rotational speed and the rotational speed according to the target rotational speed profile exceeds a defined size, the firing angles of the semiconductor switch are set according to an indexed mapping of firing angles to target rotational speeds of the universal motor, in such a way that, in the event of large reductions in rotational speed, jumps across multiple indices within the indexed mapping can be carried out. - continuously ascertaining a rotational speed of the universal motor; - temporarily, periodically short-circuiting an armature of the universal motor by means of a semiconductor switch, wherein firing angles of the semiconductor switch are regulated by means of a regulating device in such a way that, in order to achieve a minimal deviation of the ascertained rotational speed from a rotational speed of a target rotational speed profile, depending on the deviation, a defined firing angle is added to or subtracted from the set firing angle, wherein, in the case that the deviation between the ascertained rotational speed and the rotational speed according to the target rotational speed profile exceeds a defined size, the firing angles of the semiconductor switch are set according to an indexed mapping of firing angles to target rotational speeds of the universal motor, in such a way that, in the event of large reductions in rotational speed, jumps across multiple indices within the indexed mapping can be carried out.
A hybrid memory cube device including: a plurality of integrated circuit memory dies including at least a first memory die arranged on top of a second memory die, and at least a portion of the memory of the plurality of integrated circuit memory dies is mapped as at least a portion of a distributed shared memory that includes at least a portion of a memory coherence directory; and a logic base die including at least one memory controller configured to manage access by at least one device separate from the hybrid memory cube device to memory of the plurality of memory dies, and logic circuitry configured to implement a memory coherence protocol for data stored in the memory of the plurality of memory dies, wherein memory coherence state information is stored with the data in the distributed shared memory as the memory coherence directory. a plurality of integrated circuit memory dies including at least a first memory die arranged on top of a second memory die, and at least a portion of the memory of the plurality of integrated circuit memory dies is mapped as at least a portion of a distributed shared memory that includes at least a portion of a memory coherence directory; and a logic base die including at least one memory controller configured to manage access by at least one device separate from the hybrid memory cube device to memory of the plurality of memory dies, and logic circuitry configured to implement a memory coherence protocol for data stored in the memory of the plurality of memory dies, wherein memory coherence state information is stored with the data in the distributed shared memory as the memory coherence directory.
A method of operating a controller of a media content distribution system, the media content distribution system comprising a plurality of interconnected system resources arranged to receive and/or transmit media content, a number of the system resources having a capability of performing a transform processing operation on the media content, the method comprising automatically determining connectivity of the system resources and determining the transform capabilities of the system resources using control messages received from the system resources, the method further comprising: receiving an input representing a first node of the system; receiving an input representing a first media content present at the first node, wherein the first media content is to be routed between the first node and a second node; determining properties of the first media content at the first node; receiving an input representing the second node of the system; determining properties required for the first media content at the second node of the system; and computing a route for the first media content between the first node and the second node using the system resources which transforms the first media content from the properties of the first media content at the first node of the media content distribution system to the properties required for the first media content at the second node, the computing using the determined connectivity of the system resources and the determined transform capabilities of the system resources, wherein the step of determining the transform capabilities of the system resources comprises receiving information from a first of the system resources about a potential combined system resource which is possible if at least one transform capability of the first system resource is combined with at least one transform capability of another system resource. receiving an input representing a first node of the system; receiving an input representing a first media content present at the first node, wherein the first media content is to be routed between the first node and a second node; determining properties of the first media content at the first node; receiving an input representing the second node of the system; determining properties required for the first media content at the second node of the system; and computing a route for the first media content between the first node and the second node using the system resources which transforms the first media content from the properties of the first media content at the first node of the media content distribution system to the properties required for the first media content at the second node, the computing using the determined connectivity of the system resources and the determined transform capabilities of the system resources, wherein the step of determining the transform capabilities of the system resources comprises receiving information from a first of the system resources about a potential combined system resource which is possible if at least one transform capability of the first system resource is combined with at least one transform capability of another system resource.
A measuring device for measuring a length of a through-hole in a bone, the measuring device comprising: an elongated hollow sleeve having a lateral opening extending longitudinally on the lateral surface of the sleeve at its distal extremity, a bar comprising a hook-end lateral protrusion formed on its distal extremity, said elongated hollow sleeve and bar being arranged such that the bar is at least partly housed within the hollow sleeve and is slidable with respect to the sleeve along its longitudinal direction, between a distal and a proximal position wherein the sleeve is substantially rigid and the distal extremity of the bar is substantially flexible such as to be bendable into a bent configuration for the hook-end lateral protrusion to protrude over the lateral surface of the hollow sleeve, and wherein the hollow sleeve comprises a angled ramp at its inner side such that when the bar is slid to the distal position the distal extremity of the bar is forced by the ramp to deviate from a linear direction into a bent configuration with the hook-end lateral protrusion being forced to protrude laterally through the lateral opening and wherein, when the bar is slid to the proximal position, the hook-end lateral protrusion does not protrude laterally over the outer cross-section of the sleeve. an elongated hollow sleeve having a lateral opening extending longitudinally on the lateral surface of the sleeve at its distal extremity, a bar comprising a hook-end lateral protrusion formed on its distal extremity, said elongated hollow sleeve and bar being arranged such that the bar is at least partly housed within the hollow sleeve and is slidable with respect to the sleeve along its longitudinal direction, between a distal and a proximal position wherein the sleeve is substantially rigid and the distal extremity of the bar is substantially flexible such as to be bendable into a bent configuration for the hook-end lateral protrusion to protrude over the lateral surface of the hollow sleeve, and wherein the hollow sleeve comprises a angled ramp at its inner side such that when the bar is slid to the distal position the distal extremity of the bar is forced by the ramp to deviate from a linear direction into a bent configuration with the hook-end lateral protrusion being forced to protrude laterally through the lateral opening and wherein, when the bar is slid to the proximal position, the hook-end lateral protrusion does not protrude laterally over the outer cross-section of the sleeve.
A control module (136, 200, 260, 280) for generating gesture based commands during user interaction with an information presentation area on a touchscreen, wherein said control module is configured to: acquire user input from input means (150, 205, 265, 305, 405) comprising a touchscreen, said user input means adapted to detect user generated gestures in the form of user finger pressure on, movement on and release of the user finger pressure from the touchscreen, and check whether said user input corresponds to a predefined relative gesture, and wait for further user input if said user input does not correspond to a predefined relative gesture; acquire gaze data signals from a gaze tracking module (40, 140, 235, 325, 425); determine user generated gesture based control commands in the form of fine tuning the point of action based on user finger pressure and movement on the touchscreen and an object selection command based on release of the user finger pressure from the touchscreen; determine a gaze point area on said information presentation area including the user's gaze point based on at least the gaze data signals; and execute user actions for selecting an object presented on said information presentation area, wherein said user actions comprise fine tuning based on said fine tuning the point of action with said determined gaze point area as a starting point, and object selection based on said object selection command. acquire user input from input means (150, 205, 265, 305, 405) comprising a touchscreen, said user input means adapted to detect user generated gestures in the form of user finger pressure on, movement on and release of the user finger pressure from the touchscreen, and check whether said user input corresponds to a predefined relative gesture, and wait for further user input if said user input does not correspond to a predefined relative gesture; acquire gaze data signals from a gaze tracking module (40, 140, 235, 325, 425); determine user generated gesture based control commands in the form of fine tuning the point of action based on user finger pressure and movement on the touchscreen and an object selection command based on release of the user finger pressure from the touchscreen; determine a gaze point area on said information presentation area including the user's gaze point based on at least the gaze data signals; and execute user actions for selecting an object presented on said information presentation area, wherein said user actions comprise fine tuning based on said fine tuning the point of action with said determined gaze point area as a starting point, and object selection based on said object selection command.
A light deflector comprising: a mirror unit including a reflection plane, the mirror unit configured to rotate around a predetermined rotational axis; a pair of supporting beams (111a,b) configured to support the mirror unit in a rotatable manner; and at least one driver (110a,b) configured to drive the mirror unit to rotate, through the supporting beams, wherein the at least one driver has one end coupled to the supporting beams and another end coupled to a supporting unit formed to surround the mirror unit, the supporting unit has a frame structure having a plurality of sides formed by a thick portion and a thin portion different from each other in thickness; an opening is provided in a side of the supporting unit; the thin portion is provided in a side of the supporting unit at which the driver is connected. a mirror unit including a reflection plane, the mirror unit configured to rotate around a predetermined rotational axis; a pair of supporting beams (111a,b) configured to support the mirror unit in a rotatable manner; and at least one driver (110a,b) configured to drive the mirror unit to rotate, through the supporting beams, wherein the at least one driver has one end coupled to the supporting beams and another end coupled to a supporting unit formed to surround the mirror unit, the supporting unit has a frame structure having a plurality of sides formed by a thick portion and a thin portion different from each other in thickness; an opening is provided in a side of the supporting unit; the thin portion is provided in a side of the supporting unit at which the driver is connected.
A front fork comprising: a pair of fork legs (2, 3) each having a tube member and a damper (5, 6), the tube member having a vehicle body side tube and an axle side tube, and the damper (5, 6) being disposed in the tube member and interposed between the vehicle body side tube and the axle side tube; a solenoid valve for extension-side damping force adjustment to adjust an extension-side damping force; and a solenoid valve for compression-side damping force adjustment to adjust a compression-side damping force; and a stroke sensor, wherein the damper of one fork leg of the pair of fork legs (2, 3) has a cylinder connected to the axle side tube, a piston rod connected to the vehicle body side tube, and a piston valve attached to the piston rod and movably inserted into the cylinder, the solenoid valve for extension-side damping force adjustment is provided in the piston rod of the one fork leg, the solenoid valve for compression-side damping force adjustment is attached to the vehicle body side tube of another fork leg of the pair of fork legs (2, 3), and the stroke sensor is attached to the one fork leg, and has a detected element attached to the cylinder, and a detection unit that is attached to the piston rod and detects a displacement of the detected element. a pair of fork legs (2, 3) each having a tube member and a damper (5, 6), the tube member having a vehicle body side tube and an axle side tube, and the damper (5, 6) being disposed in the tube member and interposed between the vehicle body side tube and the axle side tube; a solenoid valve for extension-side damping force adjustment to adjust an extension-side damping force; and a solenoid valve for compression-side damping force adjustment to adjust a compression-side damping force; and a stroke sensor, wherein the damper of one fork leg of the pair of fork legs (2, 3) has a cylinder connected to the axle side tube, a piston rod connected to the vehicle body side tube, and a piston valve attached to the piston rod and movably inserted into the cylinder, the solenoid valve for extension-side damping force adjustment is provided in the piston rod of the one fork leg, the solenoid valve for compression-side damping force adjustment is attached to the vehicle body side tube of another fork leg of the pair of fork legs (2, 3), and the stroke sensor is attached to the one fork leg, and has a detected element attached to the cylinder, and a detection unit that is attached to the piston rod and detects a displacement of the detected element.
A heat transfer composition comprising: (i) from about 10 to about 95 % by weight trans -1,3,3,3-tetrafluoropropene (R-1234ze); (ii) from about 2 to about 30 % by weight carbon dioxide (R-744); and (iii) from about 3 to about 60 % by weight of a third component comprising fluoroethane (R-161). (i) from about 10 to about 95 % by weight trans -1,3,3,3-tetrafluoropropene (R-1234ze); (ii) from about 2 to about 30 % by weight carbon dioxide (R-744); and (iii) from about 3 to about 60 % by weight of a third component comprising fluoroethane (R-161).