mhurhangee/ep-ind-claims huggingface dataset:
A crosslinkable polyurethane coating composition comprising: - a polyol fraction comprising a polyol selected from a polyester polyol, a polyether polyol, a polycarbonate polyol or diol or a mixture thereof, said polyol being a diol or a mixture of diols; - a polyisocyanate fraction comprising an aliphatic polyisocyanate; - isosorbide; wherein the polyisocyanate fraction comprises a polyisocyanate having an -NCO functionality which is strictly greater than 2, characterised in that the molar ratio of all -OH functions of the polyol fraction and isosorbide to all -NCN functions of the polyisocyanate fraction is comprised between 0.95 and 1.05 and the molar ratio of all -OH functions of the polyol fraction to all -OH functions of isosorbide is comprised between 0.3 and 1. - a polyol fraction comprising a polyol selected from a polyester polyol, a polyether polyol, a polycarbonate polyol or diol or a mixture thereof, said polyol being a diol or a mixture of diols; - a polyisocyanate fraction comprising an aliphatic polyisocyanate; - isosorbide; wherein the polyisocyanate fraction comprises a polyisocyanate having an -NCO functionality which is strictly greater than 2, characterised in that the molar ratio of all -OH functions of the polyol fraction and isosorbide to all -NCN functions of the polyisocyanate fraction is comprised between 0.95 and 1.05 and the molar ratio of all -OH functions of the polyol fraction to all -OH functions of isosorbide is comprised between 0.3 and 1.
An image forming apparatus adapted to print either in a first operation mode, in which printing is carried out with decolorable toner, or in a second operation mode, in which printing is carried out with non-decolorable toner, comprising: a storage section configured to store a preset identification image identifying the first operation mode; a reading section configured to read an image on a first sheet to generate first image data; an image processing section configured to detect from the first image data an identification image matching the preset identification image indicating that printing on the first sheet has been carried out in the first operation mode, to determine position and orientation of the detected identification image and to erase the detected identification image from the first image data thereby synthesizing and outputting second image data to be printed either in the first operation mode or in the second operation mode; and a printing section configured to print the second image data synthesized and output from the image processing section on a second sheet different from the first sheet either in the first operation mode or in the second operation mode, wherein, in a case in which printing has to be carried out in the first operation mode, the image processing section is configured to synthesize the preset identification image, which matches the detected identification image, to a predetermined area of the second image data according to the determined position and orientation thereby generating new second image data. a storage section configured to store a preset identification image identifying the first operation mode; a reading section configured to read an image on a first sheet to generate first image data; an image processing section configured to detect from the first image data an identification image matching the preset identification image indicating that printing on the first sheet has been carried out in the first operation mode, to determine position and orientation of the detected identification image and to erase the detected identification image from the first image data thereby synthesizing and outputting second image data to be printed either in the first operation mode or in the second operation mode; and a printing section configured to print the second image data synthesized and output from the image processing section on a second sheet different from the first sheet either in the first operation mode or in the second operation mode, wherein, in a case in which printing has to be carried out in the first operation mode, the image processing section is configured to synthesize the preset identification image, which matches the detected identification image, to a predetermined area of the second image data according to the determined position and orientation thereby generating new second image data.
An agricultural vehicle (1, 2) having a driving seat and an armrest which is associated with the driving seat and at which there is arranged at least one operating device for operating a function of the vehicle, characterised in that the armrest is connected to the driving seat by a carrier structure, by means of which the longitudinal and heightwise position and/or the inclination of the armrest is adjustable relative to the driving seat by a common operating element (31, 34), wherein the carrier structure has a first spring element for positioning the armrest in the horizontal direction and a second spring element for positioning in the vertical direction and the first spring element and the second spring element are centrally actuable by means of the operating element arranged at the armrest, wherein the operating element is in the form of a slider which besides a neutral position assumes two different positions, wherein in a first position of the slider only the first spring element is actuable and in the second position of the slider only the second spring element is actuable.
Method for cleaning off extrusion heads in the extrusion of thermoplastics which are ejected or extruded, in the form of a tubular parison, from an outlet nozzle, characterized in that the tubular parison is briefly deflected and compressed by means of at least two mechanical engagement means in the form of partially circular strip-like pressure-exerting elements, wherein the engagement means move in the radial direction close beneath the outlet nozzle without touching the outlet nozzle, or with no direct contact therewith, wherein the deposits adhering to the outside in the vicinity of the outlet gap of the annular outlet nozzle are wiped off and transported away by the tubular parison during ongoing operation with continuous melt delivery, and wherein the tubular parison itself acts as a cleaning element while it is being deflected.
A coated sheet for use in an additive manufacturing process, the coated sheet comprising: a base polymer layer formed as a first sheet, the base polymer layer being formed of a base polymer material comprising polyetherimide and having a first dielectric loss factor; and a coating polymer layer covering at least a portion of a surface of the first sheet, the coating polymer layer being formed of a coating polymer material comprising polyvinyl alcohol and having a second dielectric loss factor, wherein the second dielectric loss factor of the coating polymer layer is greater than the first dielectric loss factor of the base polymer layer. a base polymer layer formed as a first sheet, the base polymer layer being formed of a base polymer material comprising polyetherimide and having a first dielectric loss factor; and a coating polymer layer covering at least a portion of a surface of the first sheet, the coating polymer layer being formed of a coating polymer material comprising polyvinyl alcohol and having a second dielectric loss factor, wherein the second dielectric loss factor of the coating polymer layer is greater than the first dielectric loss factor of the base polymer layer.
A circuit for charging a capacitor, wherein the capacitor has a first lead coupled to an output voltage node, and wherein the capacitor has a second lead coupled to a GND node, the circuit comprising: a full wave bridge rectifier configured to supply a rectified voltage signal V R onto a first node, and to supply a ground potential onto the GND node; and a charging circuit, characterized in that the charging circuit comprises a depletion mode field effect transistor, dep-FET, through which a charging current (I CHARGE) flows from the first node to the output voltage node; wherein the charging circuit is adapted to decouple the output voltage node from the first node by turning off the dep-FET when V R is greater than a first predetermined voltage V P, and supply said charging current (I CHARGE) from the first node and onto the output voltage node by turning on the dep-FET when V R is less than V P provided that an output voltage signal Vo on the output voltage node is less than a second predetermined voltage V O and provided that V R is greater than V O. a full wave bridge rectifier configured to supply a rectified voltage signal V R onto a first node, and to supply a ground potential onto the GND node; and a charging circuit, characterized in that the charging circuit comprises a depletion mode field effect transistor, dep-FET, through which a charging current (I CHARGE) flows from the first node to the output voltage node; wherein the charging circuit is adapted to decouple the output voltage node from the first node by turning off the dep-FET when V R is greater than a first predetermined voltage V P, and supply said charging current (I CHARGE) from the first node and onto the output voltage node by turning on the dep-FET when V R is less than V P provided that an output voltage signal Vo on the output voltage node is less than a second predetermined voltage V O and provided that V R is greater than V O.
A surgical training device comprising: a base having an upper surface; a plurality of mounting posts connected to the base and each extending upwardly from the upper surface of the base to a distal end; each mounting post comprising a blunt tip surface at the distal end; characterized in that the device further comprises at least one simulated tissue portion mounted in tension being stretched between and connected to the posts; and in that each mounting post includes at least one notch formed circumferentially in the outer surface perpendicular to a longitudinal axis of each post and configured to hold the simulated tissue portion in the location of the at least one notch such that the simulated tissue portion is suspended within the notches, retained in the notches along the mounting posts and prevented from moving along the length of the mounting posts. a base having an upper surface; a plurality of mounting posts connected to the base and each extending upwardly from the upper surface of the base to a distal end; each mounting post comprising a blunt tip surface at the distal end; characterized in that the device further comprises at least one simulated tissue portion mounted in tension being stretched between and connected to the posts; and in that each mounting post includes at least one notch formed circumferentially in the outer surface perpendicular to a longitudinal axis of each post and configured to hold the simulated tissue portion in the location of the at least one notch such that the simulated tissue portion is suspended within the notches, retained in the notches along the mounting posts and prevented from moving along the length of the mounting posts.
A system comprising: a processor operable to execute instructions; a manageability engine coupled to the processor and operable to authenticate a user of the system; and a trusted storage associated with the manageability engine, wherein the trusted storage is operable to store an authentication image and at least one authentication gesture associated with the authentication image, and wherein the manageability engine is to: cause the authentication image to be displayed within a portion of a display frame according to a set of random coordinates, receive gesture input values from the user based on the authentication image displayed within the display frame, and determine whether the user is authenticated based on the gesture input values and the at least one authentication gesture; characterised in that the stored authentication gesture comprises a sequence of swipes or selections of different locations/features within the authentication image. a processor operable to execute instructions; a manageability engine coupled to the processor and operable to authenticate a user of the system; and a trusted storage associated with the manageability engine, wherein the trusted storage is operable to store an authentication image and at least one authentication gesture associated with the authentication image, and wherein the manageability engine is to: cause the authentication image to be displayed within a portion of a display frame according to a set of random coordinates, receive gesture input values from the user based on the authentication image displayed within the display frame, and determine whether the user is authenticated based on the gesture input values and the at least one authentication gesture; cause the authentication image to be displayed within a portion of a display frame according to a set of random coordinates, receive gesture input values from the user based on the authentication image displayed within the display frame, and determine whether the user is authenticated based on the gesture input values and the at least one authentication gesture; characterised in that the stored authentication gesture comprises a sequence of swipes or selections of different locations/features within the authentication image.
A method for charging a pool cleaning robot, the method comprises: wirelessly charging a first wireless charging element of a pool cleaning robot; wherein the method is characterized by: positioning the first wireless charging element within a charging range of a second wireless charging element of a floating unit; wherein the floating unit is electrically and mechanically coupled to an external power source,wherein the positioning comprises moving at least one of the pool cleaning robot and the floating unit; and wherein the wirelessly charging comprises wirelessly charging, by the second wireless charging element, the first wireless charging element, wherein the charging occurs while maintaining the first wireless charging element within the charging range of the floating unit, despite movements of the floating unit. wirelessly charging a first wireless charging element of a pool cleaning robot; wherein the method is characterized by: positioning the first wireless charging element within a charging range of a second wireless charging element of a floating unit; wherein the floating unit is electrically and mechanically coupled to an external power source,wherein the positioning comprises moving at least one of the pool cleaning robot and the floating unit; and wherein the wirelessly charging comprises wirelessly charging, by the second wireless charging element, the first wireless charging element, wherein the charging occurs while maintaining the first wireless charging element within the charging range of the floating unit, despite movements of the floating unit. positioning the first wireless charging element within a charging range of a second wireless charging element of a floating unit; wherein the floating unit is electrically and mechanically coupled to an external power source,wherein the positioning comprises moving at least one of the pool cleaning robot and the floating unit; and wherein the wirelessly charging comprises wirelessly charging, by the second wireless charging element, the first wireless charging element, wherein the charging occurs while maintaining the first wireless charging element within the charging range of the floating unit, despite movements of the floating unit.
A method of wireless communication, comprising: determining, by a wireless node, a pattern for transmitting multiple synchronization communications in one or more synchronization communication sets; determining, by the wireless node, a set of resources, in the one or more synchronization communication sets, to be used to transmit the multiple synchronization communications based at least in part on the pattern; and transmitting, by the wireless node, the multiple synchronization communications using the set of resources, wherein a first synchronization communication of the multiple synchronization communications is frequency division multiplexed with a second synchronization communication, wherein each synchronization communication is a synchronization signal, SS, block and each of the one or more synchronization communication sets is an SS burst set. determining, by a wireless node, a pattern for transmitting multiple synchronization communications in one or more synchronization communication sets; determining, by the wireless node, a set of resources, in the one or more synchronization communication sets, to be used to transmit the multiple synchronization communications based at least in part on the pattern; and transmitting, by the wireless node, the multiple synchronization communications using the set of resources, wherein a first synchronization communication of the multiple synchronization communications is frequency division multiplexed with a second synchronization communication, wherein each synchronization communication is a synchronization signal, SS, block and each of the one or more synchronization communication sets is an SS burst set.
Metal powder for use in an additive production method of three-dimensional objects wherein the powder is solidified by means of a laser or electron beam or another heat source, wherein the powder is a stainless steel powder, wherein the powder comprises iron and the following components by weight percent (wt.-%) carbon: 0.07 max. wt-%, chromium: 14.00 - 15.50 wt.-%, nickel: 3.5 - 5.0 wt.-%, manganese: 1.00 max. wt.-%, phosphorus: 0.03 max. wt.-%, sulfur: 0.015 max. wt.-%, silicon: 1.00 max. wt.-%, molybdenum: 0.5 max. wt.-%, nitrogen: 0.10 max. wt.-%, copper: 3.0 - 4.5 wt.-%, optionally niobium: 0.15 - 0.45 wt.-%, and iron: balance, wherein the powder particles have a median particle size d50 between 20μm and 100μm and wherein the content of ferrite is less than 5 wt.-%, and wherein the powder particles have an approximately spherical shape with an aspect ratio up to 1:2. wherein the powder is a stainless steel powder, wherein the powder comprises iron and the following components by weight percent (wt.-%) carbon: 0.07 max. wt-%, chromium: 14.00 - 15.50 wt.-%, nickel: 3.5 - 5.0 wt.-%, manganese: 1.00 max. wt.-%, phosphorus: 0.03 max. wt.-%, sulfur: 0.015 max. wt.-%, silicon: 1.00 max. wt.-%, molybdenum: 0.5 max. wt.-%, nitrogen: 0.10 max. wt.-%, copper: 3.0 - 4.5 wt.-%, optionally niobium: 0.15 - 0.45 wt.-%, and iron: balance, wherein the powder particles have a median particle size d50 between 20μm and 100μm and wherein the content of ferrite is less than 5 wt.-%, and wherein the powder particles have an approximately spherical shape with an aspect ratio up to 1:2.
A free piston type compressor comprising a first piston and a second piston interconnected with a torsion body (3a, 3b) and elastic bending elements (4a, 4b), said first piston and said second piston being driven by a first motor and a second motor by applying force in opposite circumferential directions, so that in use the first piston and second piston displace along a displacement direction characterized in that said motors drive the first piston and the second piston in said opposite circumferential directions transversal to the displacement direction.
A method for producing reconstituted vegetable strips comprising the steps of: (a) milling vegetable materials to reach specific particle sizes between 10 and 200 MESH; (b) mixturing cellulose fibers in an intensive mixer for 1 to 10 min in order to decrease the fiber length to nanometric scale; (c) mixturing the vegetable material obtained from step (a) with an agglutinating compound added to the nanocellulose fibers obtained from step (b); (d) adding at least one humectant agent and water to the mixture described in step (c); (e) submitting the mixture described in step (d) to a step of shearing through a prelamination system comprised by at least two linear and parallel rollers; (f) submitting the strip obtained from step (e) to a step of mixturing in an intensive mixer to obtain a homogeneous mass; (g) laminating the mixture obtained from step (f) between at least two linear and parallel lamination rollers, obtaining a continuous strip of specific thickness; (h) drying the vegetable strip obtained from step (g) through its passage through a thermal chamber in a specific temperature, between 90°C and 900°C, through a conveyor belt; and (i) cutting and final processing of the dried strip obtained from step (h) for obtaining the final product. (a) milling vegetable materials to reach specific particle sizes between 10 and 200 MESH; (b) mixturing cellulose fibers in an intensive mixer for 1 to 10 min in order to decrease the fiber length to nanometric scale; (c) mixturing the vegetable material obtained from step (a) with an agglutinating compound added to the nanocellulose fibers obtained from step (b); (d) adding at least one humectant agent and water to the mixture described in step (c); (e) submitting the mixture described in step (d) to a step of shearing through a prelamination system comprised by at least two linear and parallel rollers; (f) submitting the strip obtained from step (e) to a step of mixturing in an intensive mixer to obtain a homogeneous mass; (g) laminating the mixture obtained from step (f) between at least two linear and parallel lamination rollers, obtaining a continuous strip of specific thickness; (h) drying the vegetable strip obtained from step (g) through its passage through a thermal chamber in a specific temperature, between 90°C and 900°C, through a conveyor belt; and (i) cutting and final processing of the dried strip obtained from step (h) for obtaining the final product.
Arrangement for automatically configuring a magnetic drive (2-4, 16-19), said arrangement comprising: a vacuum switching device having a movable contact and a fixed contact, and a magnetic drive (2-4, 16-19) having two coils (2, 3) which can be connected in parallel or in series, wherein the magnetic drive (2-4, 16-19) is designed, in the switched-on state, to exert an attractive force on a magnet armature and to move said magnet armature, and a transfer mechanism which is designed to translate a movement of the magnet armature into a movement of the movable contact toward the fixed contact, and an actuating device for the magnetic drive (2-4, 16-19), which actuating device can be configured for an input voltage, characterized in that the magnetic drive (2-4, 16-19) has controllable switching devices for the coils (2, 3), and in that a configuration device is designed to measure the input voltage and to configure the actuating device for the measured input voltage, and to interconnect the coils (2, 3) in parallel or in series depending on the measured input voltage by means of the controllable switching devices. a vacuum switching device having a movable contact and a fixed contact, and a magnetic drive (2-4, 16-19) having two coils (2, 3) which can be connected in parallel or in series, wherein the magnetic drive (2-4, 16-19) is designed, in the switched-on state, to exert an attractive force on a magnet armature and to move said magnet armature, and a transfer mechanism which is designed to translate a movement of the magnet armature into a movement of the movable contact toward the fixed contact, and an actuating device for the magnetic drive (2-4, 16-19), which actuating device can be configured for an input voltage, characterized in that the magnetic drive (2-4, 16-19) has controllable switching devices for the coils (2, 3), and in that a configuration device is designed to measure the input voltage and to configure the actuating device for the measured input voltage, and to interconnect the coils (2, 3) in parallel or in series depending on the measured input voltage by means of the controllable switching devices.