mhurhangee/ep-ind-claims huggingface dataset:
A transmitter for use in a data communication system, the transmitter being operable to communicate data packets (504, 506) via a data communication network and/or a data carrier to at least one receiver, wherein the transmitter is operable to construct the data packets (504, 506) and include within at least one of the data packets (504, 506) a plurality of mutually different types of data, characterized in that the plurality of mutually different types of data have different priorities, wherein when the at least one of the data packets (504, 506) is constructed, the type of data having a highest priority is added first and is followed by the type of data having a lower priority going towards a lowest priority.
A method comprises: receiving by a computer system an assertion of an alarm condition in a facility with interior areas, and external areas that are subject to surveillance; autonomously programming by the computing system a drone with a route that starts from the drone's initial location to a location where the alarm condition was asserted; sending by the computer, upon receiving the assertion of the alarm condition, to a drone, a message to cause the drone to fly to the specific location within the facility, with the drone having a configuration that permits the drone to operate within confines of the indoor portions of the facility having one or more of stairs, exits, doors, rooms, and corridors; determining when the drone has reached the specific location; causing the drone to enter a hover mode, where the drone remains in a substantially fixed location hovering over the specific location within the facility; receiving sensor data (56, 62, 70), including image data, from a sensor carried by the drone; retrieving stored sensor data of the location where the alarm condition was asserted; applying analytical processing to the received sensor data to detect an unacceptable level of detected feature differences in features contained in the sensor data at the location in the facility; and outputting an indication of unacceptable level of detected feature differences. receiving by a computer system an assertion of an alarm condition in a facility with interior areas, and external areas that are subject to surveillance; autonomously programming by the computing system a drone with a route that starts from the drone's initial location to a location where the alarm condition was asserted; sending by the computer, upon receiving the assertion of the alarm condition, to a drone, a message to cause the drone to fly to the specific location within the facility, with the drone having a configuration that permits the drone to operate within confines of the indoor portions of the facility having one or more of stairs, exits, doors, rooms, and corridors; determining when the drone has reached the specific location; causing the drone to enter a hover mode, where the drone remains in a substantially fixed location hovering over the specific location within the facility; receiving sensor data (56, 62, 70), including image data, from a sensor carried by the drone; retrieving stored sensor data of the location where the alarm condition was asserted; applying analytical processing to the received sensor data to detect an unacceptable level of detected feature differences in features contained in the sensor data at the location in the facility; and outputting an indication of unacceptable level of detected feature differences.
A positive resist composition comprising: a resin that contains a repeating unit having a structure represented by general formula, wherein R a represents a hydrogen atom or an alkyl group having 1-4 carbon atoms that may have a substituent, wherein the resin does not have an aromatic group; a compound that generates an acid by irradiation with actinic ray or radiation; and a solvent. a resin that contains a repeating unit having a structure represented by general formula, wherein R a represents a hydrogen atom or an alkyl group having 1-4 carbon atoms that may have a substituent, wherein the resin does not have an aromatic group; a compound that generates an acid by irradiation with actinic ray or radiation; and a solvent.
A modular machine for baking flexible and leak-proof cones from batter, comprising a base frame on which are arranged conical female moulds with their axis parallel to a vertical axis (Z'Z) when in use and a support for conical male moulds with their axis parallel to the vertical axis (Z'Z) when in use, this support being mobile along the vertical axis (Z'Z) between a cooking position, in which the male moulds are inserted into the female moulds with a predetermined gap, and a cone retrieval position in which the male moulds are separated from the female moulds, the modular machine is characterized in that the female moulds are integrated in a metal frame placed against metal longitudinal receiving panels (11a, 11b) defining a free space and at least one of these receiving panels (11a, 11b) is in contact with a heating element, and in that the male moulds, each having a heating rod extending in a bore, are coupled to the mobile support by releasable connectors.
Process for changing edition on a rotary press, for printing of a first print job and a second print job on the same web, the first point job and the second point job being operated using at least one printing group of the rotary press, used to print the first print job and the second print job, the printing group including a plate cylinder, plates, a blanket cylinder and a blanket, the process including, between the first print job and the second print job, a stage of changing plates of the printing group, in which the blanket is held away from the web and the plates of the plate cylinder are changed, in which, between the first print job and the second print job, the web is kept travelling through the rotary press.
A seat provided with a microphone for a vehicle, the seat comprises: a frame; a bearing structure which is mounted on the frame, is elastically deformable, and is divided into a seat, a backrest and a headrest; a cover, which covers the bearing structure; and a microphone; the seat is characterized in that it comprises a support element, which is "U"-shaped, embraces the upper part of the frame, is covered by the bearing structure, and has, at its top, a housing accommodating, on the inside, the microphone. a frame; a bearing structure which is mounted on the frame, is elastically deformable, and is divided into a seat, a backrest and a headrest; a cover, which covers the bearing structure; and a microphone; the seat is characterized in that it comprises a support element, which is "U"-shaped, embraces the upper part of the frame, is covered by the bearing structure, and has, at its top, a housing accommodating, on the inside, the microphone.
Method for the thermal treatment of a consumable wire electrode, which involves subjecting the wire electrode, prior to its intended use as a consumable, current-carrying wire electrode, to a cold treatment in which the wire electrode in a cooling phase is cooled down to a lower target temperature of below minus 50°C and subsequently heated to an upper target temperature in a heating phase.
A roof tent rack for a passenger car, comprising a front cross brace and a rear cross brace, wherein both respective ends of the front cross brace and the rear cross brace have an attachment device for attaching the cross braces (11, 12) directly to the passenger car roof or to two roof rails securely mounted to the passenger car roof, characterized in that the roof tent rack further comprises a levelable upper structure, on which a tent is or can be mounted, two front lifting devices (15, 15') and two rear lifting devices (16, 16'), wherein the two front lifting devices (15, 15') and the two rear lifting devices (16, 16') are each arranged between the upper structure and the front cross brace or the rear cross brace for leveling the upper structure, wherein the lifting devices are each independently height adjustable, and wherein the upper structure is a tent platform, which is connected with the two front lifting devices and with the two rear lifting devices.
A high voltage bushing extending in a sloping, non-horizontal direction comprising an elongated tubular electric conductor, a tubular insulator surrounding said conductor, and cooling means for cooling said conductor, characterized in that said cooling means comprises one cooling element (7, 9) extending along a fraction of the length of said conductor and in thermal connection with said conductor and said cooling element is located at an end region (8, 10) of the bushing.
A method to prepare a polylactic acid comprising the steps of: (i) performing a ring opening polymerization using a catalyst and either a catalyst killer compound or an endcapping additive to obtain a raw polylactic acid of MW greater than 10,000 g/mol, (ii) purifying the raw polylactic acid by removing and separating low boiling compounds comprising lactide and impurities from the raw polylactic acid by devolatization of the low boiling compounds as a gas phase stream, wherein the the devolatization operates under a lactide partial pressure of less than 20 mbar, preferably less than 10 mbar, particularly preferred less than 5 mbar, (iii) purifying the lactide from the devolatization and removing the impurities from the gas phase stream of evaporated low boiling compounds by means of condensing the evaporated gas phase stream to give a condensed stream and a subsequent melt crystallization of the condensed stream, wherein the lactide is purified and the removed impurities include a catalyst residue and a compound containing at least one hydroxyl group such that the purified lactide is polymerized by feeding it back into the ring opening polymerization. (i) performing a ring opening polymerization using a catalyst and either a catalyst killer compound or an endcapping additive to obtain a raw polylactic acid of MW greater than 10,000 g/mol, (ii) purifying the raw polylactic acid by removing and separating low boiling compounds comprising lactide and impurities from the raw polylactic acid by devolatization of the low boiling compounds as a gas phase stream, wherein the the devolatization operates under a lactide partial pressure of less than 20 mbar, preferably less than 10 mbar, particularly preferred less than 5 mbar, (iii) purifying the lactide from the devolatization and removing the impurities from the gas phase stream of evaporated low boiling compounds by means of condensing the evaporated gas phase stream to give a condensed stream and a subsequent melt crystallization of the condensed stream, wherein the lactide is purified and the removed impurities include a catalyst residue and a compound containing at least one hydroxyl group such that the purified lactide is polymerized by feeding it back into the ring opening polymerization.
An aqueous composition for the manufacture of hard capsule shells characterized in that it comprises (i) an aqueous solvent, (ii) a mono-, di-, and oligosaccharides free pullulan and (iii) a setting system, wherein the amount of mono-, di- and oligosaccharides is lower than 2.5% by weight over the total weight of the pullulan sample, on a dry solid basis, and wherein said mono-, di-, and oligosaccharides free pullulan is comprised at a level of between 18% and 40% by weight of the aqueous composition.
A computer-implemented user interface method for a computing device, the method comprising: associating each of a plurality of character keys of a virtual keypad with a direction of each key relative to a center of the keypad, wherein the plurality of character keys comprises a first set of character keys and an additional set of character keys; receiving (304, 314) a user input comprising an initial contact from a user at a location on a touchscreen of the computing device and a dragging input, the dragging input comprising a first input segment in a direction relative to the location of the initial user contact; causing a character from the first set of character keys to be entered on the computing device, independent of the location of the initial contact, based on the direction of each key relative to the center of the keypad corresponding to the direction of the dragging input relative to the location of the initial user contact, characterised in that when the dragging input further comprises a second input segment separated from the first input segment by a change in direction, the character to be entered is selected from the additional set of character keys, based on the direction of the first input segment relative to the location of the initial user contact. associating each of a plurality of character keys of a virtual keypad with a direction of each key relative to a center of the keypad, wherein the plurality of character keys comprises a first set of character keys and an additional set of character keys; receiving (304, 314) a user input comprising an initial contact from a user at a location on a touchscreen of the computing device and a dragging input, the dragging input comprising a first input segment in a direction relative to the location of the initial user contact; causing a character from the first set of character keys to be entered on the computing device, independent of the location of the initial contact, based on the direction of each key relative to the center of the keypad corresponding to the direction of the dragging input relative to the location of the initial user contact, characterised in that when the dragging input further comprises a second input segment separated from the first input segment by a change in direction, the character to be entered is selected from the additional set of character keys, based on the direction of the first input segment relative to the location of the initial user contact.
A method for processing Ethernet ring control messages, characterized by comprising the following steps of: 1.1) distinguishing a message to be processed by processors of transit nodes (S1, S3, S4) from a message not to be processed by the processors of the transit nodes, and setting a distinguishing identification in a message when a master node or the transit nodes (S1, S3, S4) constitute the message to be sent, wherein FLUSH-DOWN message and FLUSH-UP message are the messages to be processed by the processors of transit nodes, while HELLO message and LINK-DOWN message are messages not to be processed by processors of transit nodes; 1.2) after receiving the message from one port, the transit node (S1, S3, S4) forwarding the message through other ports without reporting the message to the processor of the transit node when determining the message does not need to be processed by the processor of the transit node according to the distinguishing identification of the message, or reporting the message to the processor of the transit node as well as forwarding the message through other ports when determining the message needs to be processed by the processor of the transit node according to the distinguishing identification of the message. 1.1) distinguishing a message to be processed by processors of transit nodes (S1, S3, S4) from a message not to be processed by the processors of the transit nodes, and setting a distinguishing identification in a message when a master node or the transit nodes (S1, S3, S4) constitute the message to be sent, wherein FLUSH-DOWN message and FLUSH-UP message are the messages to be processed by the processors of transit nodes, while HELLO message and LINK-DOWN message are messages not to be processed by processors of transit nodes; 1.2) after receiving the message from one port, the transit node (S1, S3, S4) forwarding the message through other ports without reporting the message to the processor of the transit node when determining the message does not need to be processed by the processor of the transit node according to the distinguishing identification of the message, or reporting the message to the processor of the transit node as well as forwarding the message through other ports when determining the message needs to be processed by the processor of the transit node according to the distinguishing identification of the message.
A handle assembly for receiving a surgical tool, the handle assembly comprising a handle and a locking mechanism attached to the handle, the locking mechanism comprising: a locking ring moveable between first and second positions relative to the handle, a collet having a central through hole for receiving the surgical tool, a compressible locking pin disposed between and engageable with the locking ring and the collet, and a retaining ring having a through hole for receiving the locking pin, wherein the locking ring includes a cam for camming against the locking pin. a locking ring moveable between first and second positions relative to the handle, a collet having a central through hole for receiving the surgical tool, a compressible locking pin disposed between and engageable with the locking ring and the collet, and a retaining ring having a through hole for receiving the locking pin, wherein the locking ring includes a cam for camming against the locking pin.
A battery-powered pressure gauge comprising: a battery; a controller coupled to the battery; a visual indicator configured to indicate pressure; a motor coupled to the visual indicator to move the visual indicator, the motor being operably coupled to the controller; and wherein the controller is configured to detect an amount of available power from the battery and engage the motor based on the amount of available power, wherein the controller is further configured to adjust the speed of the motor based on the available power from the battery. a battery; a controller coupled to the battery; a visual indicator configured to indicate pressure; a motor coupled to the visual indicator to move the visual indicator, the motor being operably coupled to the controller; and wherein the controller is configured to detect an amount of available power from the battery and engage the motor based on the amount of available power, wherein the controller is further configured to adjust the speed of the motor based on the available power from the battery.
Method for conveying an electrode strip (3, E) for the production of electrical energy storage devices, the method comprising the steps of: - conveying the electrode strip (3, E) along a feeding path in a first direction; - gripping the electrode strip (3, E) sequentially at subsequent portions of the same by means of a gripping assembly; - advancing each strip portion towards a lamination unit arranged downstream of the gripping assembly; - detecting the position of each strip portion by means of a sensor arranged downstream of the gripping assembly; - for each strip portion, calculating at least one deviation (ΔT, ΔD, ΔR) between the relative position detected and a nominal position (PTn, PDn, PRn); - training at least one artificial intelligence algorithm with a sequence of deviations ({ΔTi}, {ΔDi}, {ΔRi}) relative to a sequence of a certain first number of last strip portions; - determining at least one expected deviation (ΔTf, ΔDf, ΔRf) for at least one subsequent strip portion, which is subsequent to the sequence of last strip portions, by means of said at least one artificial intelligence algorithm; and - controlling the position of the gripping assembly and/or the advancement speed of said at least one subsequent strip portion while the gripping assembly is gripping the subsequent strip portion so as to compensate for said at least one expected deviation (ΔTf, ΔDf, ΔRf). - conveying the electrode strip (3, E) along a feeding path in a first direction; - gripping the electrode strip (3, E) sequentially at subsequent portions of the same by means of a gripping assembly; - advancing each strip portion towards a lamination unit arranged downstream of the gripping assembly; - detecting the position of each strip portion by means of a sensor arranged downstream of the gripping assembly; - for each strip portion, calculating at least one deviation (ΔT, ΔD, ΔR) between the relative position detected and a nominal position (PTn, PDn, PRn); - training at least one artificial intelligence algorithm with a sequence of deviations ({ΔTi}, {ΔDi}, {ΔRi}) relative to a sequence of a certain first number of last strip portions; - determining at least one expected deviation (ΔTf, ΔDf, ΔRf) for at least one subsequent strip portion, which is subsequent to the sequence of last strip portions, by means of said at least one artificial intelligence algorithm; and - controlling the position of the gripping assembly and/or the advancement speed of said at least one subsequent strip portion while the gripping assembly is gripping the subsequent strip portion so as to compensate for said at least one expected deviation (ΔTf, ΔDf, ΔRf).
A system for imaging a tissue cell at a predetermined depth in the retina of an eye, with compensation for refractive errors, the system characterised by: a first subassembly for directing a first light beam into the eye to measure anterior optical aberrations introduced by components of the eye as light is directed through the eye and onto the retina; a second subassembly for directing a second light beam through retinal tissue to the predetermined depth, to measure phase aberrations introduced by the retinal tissue, wherein the anterior optical aberrations have been substantially removed from the second light beam; and a third subassembly for directing a third light beam to the tissue cell, to produce an image of the tissue cell, wherein the anterior optical aberrations and the phase aberrations have been substantially removed from the third light beam. a first subassembly for directing a first light beam into the eye to measure anterior optical aberrations introduced by components of the eye as light is directed through the eye and onto the retina; a second subassembly for directing a second light beam through retinal tissue to the predetermined depth, to measure phase aberrations introduced by the retinal tissue, wherein the anterior optical aberrations have been substantially removed from the second light beam; and a third subassembly for directing a third light beam to the tissue cell, to produce an image of the tissue cell, wherein the anterior optical aberrations and the phase aberrations have been substantially removed from the third light beam.