mhurhangee/ep-ind-claims huggingface dataset:
A system that can move loads along stairs comprising a support surface and a load transporting vehicle, wherein when said support surface is deployed on stairs, said support surface remains flat and straight and provides structural support to said load transporting vehicle and wherein said load transporting vehicle can climb along the stairs by moving on said support surface, said load transporting vehicle comprising a load support platform, means for propulsion, and means for maintaining during operation, the load support platform at a safe orientation for the load as the load transporting vehicle climbs along the stairs by moving on said support surface; characterized in that the load transporting vehicle comprises two moveable arms supporting a movement mechanism so that the vehicle can move along the support surface and rotate in a vertical plane so as to maintain the load support platform in an essentially horizontal position; and in that the load transporting vehicle further comprises two propulsion units, each propulsion unit mounted on one of the two arms, wherein the two moveable arms move to maintain contact with a ground support surface, as the vehicle moves along stairs, and maintain the load transporting vehicle in an essentially horizontal orientation, and wherein each propulsion unit and supporting arm is housed in a protective enclosure, the protective enclosure forming part of the load bearing structure of the load transporting vehicle, and wherein the two protective enclosures are joined by a middle load support platform so that a load can be positioned onto said middle load support platform for transportation along the stairs.
A toner cartridge comprising: a toner holding chamber (5, 4) that holds toner therein, said toner holding chamber (5, 4) including a first chamber and a second chamber; a partition wall that divides said toner holding chamber (5, 4) into the first chamber and the second chamber; a toner moving member (43, 8) that causes the toner in the first chamber to move, the toner moving member including a shaft that longitudinally extends in a direction in which the toner is moved in the first chamber; a blade that spirals around the shaft and extends from a side of the first chamber opposite the partition wall over substantially only half the full length of the first chamber; a toner receiving port disposed substantially above the blade so that toner enters into the first chamber and falls onto the blade; an agitating member (6, 6a) that agitates the toner in the second chamber; wherein said toner moving member and said agitating member are separate members and are coupled to each other by means of a coupling mechanism so that when one of said toner moving member and said agitating member is driven in rotation, the other of said toner moving member and said agitating member also rotates. a toner holding chamber (5, 4) that holds toner therein, said toner holding chamber (5, 4) including a first chamber and a second chamber; a partition wall that divides said toner holding chamber (5, 4) into the first chamber and the second chamber; a toner moving member (43, 8) that causes the toner in the first chamber to move, the toner moving member including a shaft that longitudinally extends in a direction in which the toner is moved in the first chamber; a blade that spirals around the shaft and extends from a side of the first chamber opposite the partition wall over substantially only half the full length of the first chamber; a toner receiving port disposed substantially above the blade so that toner enters into the first chamber and falls onto the blade; an agitating member (6, 6a) that agitates the toner in the second chamber; wherein said toner moving member and said agitating member are separate members and are coupled to each other by means of a coupling mechanism so that when one of said toner moving member and said agitating member is driven in rotation, the other of said toner moving member and said agitating member also rotates.
A computer-implemented method for transforming and formatting data from unstructured textual data sources into a structured collection of threat information data suitable for identifying a threat to secure operation of a network, the method comprising: receiving unstructured textual data from multiple sources, wherein the received unstructured data does not include labels that explicitly identify intelligence types; identifying one or more keywords in the unstructured textual data; determining one or more patterns included in the unstructured textual data using the identified keywords; identifying one or more intelligence types that correspond with the unstructured textual data using the determined patterns, wherein the intelligence types comprise i) observables, ii) indicators of compromise, iii) vulnerabilities, iv) exploits, v) adversary tactics, techniques, and procedures, vi) threat actors, vii) threat campaigns, and viii) courses of action; associating, for each of the identified intelligence types, a data subset from the unstructured textual data with the respective intelligence type to create structured data constructs for the received unstructured textual data. receiving unstructured textual data from multiple sources, wherein the received unstructured data does not include labels that explicitly identify intelligence types; identifying one or more keywords in the unstructured textual data; determining one or more patterns included in the unstructured textual data using the identified keywords; identifying one or more intelligence types that correspond with the unstructured textual data using the determined patterns, wherein the intelligence types comprise i) observables, ii) indicators of compromise, iii) vulnerabilities, iv) exploits, v) adversary tactics, techniques, and procedures, vi) threat actors, vii) threat campaigns, and viii) courses of action; associating, for each of the identified intelligence types, a data subset from the unstructured textual data with the respective intelligence type to create structured data constructs for the received unstructured textual data.
An aerosol-generating system comprising: a liquid-storage portion for holding a liquid aerosol-forming substrate; a first electrode (304, 314, 324, 334, 344', 344" 354, 364, 374) and a second electrode (305, 315, 335, 345', 345", 355, 365, 375) spaced from the first electrode (304, 314, 324, 334, 344', 344" 354, 364, 374), wherein at least a portion of the liquid storage portion is arranged between the first electrode (304, 314, 324, 334, 344', 344" 354, 364, 374) and the second electrode (305, 315, 335, 345', 345", 355, 365, 375) and the portion of the liquid storage portion arranged between the first electrode (304, 314, 324, 334, 344', 344" 354, 364, 374) and the second electrode (305, 315, 335, 345', 345", 355, 365, 375) holds liquid aerosol-forming substrate when liquid aerosol-forming substrate is held in the liquid storage portion; and a control system configured to: measure an electrical quantity across at least the portion of the liquid storage portion holding liquid aerosol-forming substrate, between the first electrode (304, 314, 324, 334, 344', 344" 354, 364, 374) and the second electrode (305, 315, 335, 345', 345", 355, 365, 375), and identify the liquid aerosol-forming substrate held in the liquid storage portion based on the measured electrical quantity information. a liquid-storage portion for holding a liquid aerosol-forming substrate; a first electrode (304, 314, 324, 334, 344', 344" 354, 364, 374) and a second electrode (305, 315, 335, 345', 345", 355, 365, 375) spaced from the first electrode (304, 314, 324, 334, 344', 344" 354, 364, 374), wherein at least a portion of the liquid storage portion is arranged between the first electrode (304, 314, 324, 334, 344', 344" 354, 364, 374) and the second electrode (305, 315, 335, 345', 345", 355, 365, 375) and the portion of the liquid storage portion arranged between the first electrode (304, 314, 324, 334, 344', 344" 354, 364, 374) and the second electrode (305, 315, 335, 345', 345", 355, 365, 375) holds liquid aerosol-forming substrate when liquid aerosol-forming substrate is held in the liquid storage portion; and a control system configured to: measure an electrical quantity across at least the portion of the liquid storage portion holding liquid aerosol-forming substrate, between the first electrode (304, 314, 324, 334, 344', 344" 354, 364, 374) and the second electrode (305, 315, 335, 345', 345", 355, 365, 375), and identify the liquid aerosol-forming substrate held in the liquid storage portion based on the measured electrical quantity information. measure an electrical quantity across at least the portion of the liquid storage portion holding liquid aerosol-forming substrate, between the first electrode (304, 314, 324, 334, 344', 344" 354, 364, 374) and the second electrode (305, 315, 335, 345', 345", 355, 365, 375), and identify the liquid aerosol-forming substrate held in the liquid storage portion based on the measured electrical quantity information.
A heating, ventilation, and air conditioning (HVAC) system including first and second fluids, the HVAC system comprising: a first heat exchanger (128, 120) including a membrane adapted for channeling the first fluid through the first heat exchanger (128, 120), the membrane disposed for heat transfer between the first fluid and the second fluid, the membrane defining an inlet, characterized in that: the first heat exchanger (128, 120) is configured for being positioned such that the inlet has an inlet height relative to grade; and the HVAC system further comprises a refrigerant sub-system containing a third fluid; and at least one closed loop sub-system (104, 106) containing the first fluid adapted for transferring heat from the first heat exchanger (128, 120) to a second heat exchanger (126, 124), the second heat exchanger (126, 124) adapted for transferring heat from the first fluid to the third fluid in the refrigerant sub-system, the closed loop sub-system (104, 106) comprising: an expansion tank (140, 172) containing the first fluid, wherein the expansion tank (140, 172) is configured for being positioned such that a level of the first fluid within the expansion tank (140, 172) has a level height relative to grade, wherein the expansion tank (140, 172) is configured for being positioned relative to the first heat exchanger (128, 120) such that the inlet height is greater than the level height and such that a pressure of the first fluid at the inlet is maintained at a negative pressure to maintain the membrane in a collapsed configuration. the first heat exchanger (128, 120) is configured for being positioned such that the inlet has an inlet height relative to grade; and the HVAC system further comprises a refrigerant sub-system containing a third fluid; and at least one closed loop sub-system (104, 106) containing the first fluid adapted for transferring heat from the first heat exchanger (128, 120) to a second heat exchanger (126, 124), the second heat exchanger (126, 124) adapted for transferring heat from the first fluid to the third fluid in the refrigerant sub-system, the closed loop sub-system (104, 106) comprising: an expansion tank (140, 172) containing the first fluid, wherein the expansion tank (140, 172) is configured for being positioned such that a level of the first fluid within the expansion tank (140, 172) has a level height relative to grade, wherein the expansion tank (140, 172) is configured for being positioned relative to the first heat exchanger (128, 120) such that the inlet height is greater than the level height and such that a pressure of the first fluid at the inlet is maintained at a negative pressure to maintain the membrane in a collapsed configuration.
A transmitting optical network element comprising: - an interface for receiving key information from a key management entity; - storage means for storing a public key received by the key management entity wherein the public key is associated with a receiving optical network element connectable to the transmitting optical network element via an optical network in order to transmit data; and - a key generation entity configured for generating a symmetric encryption key; wherein the transmitting optical network element is adapted to: - encrypt a received payload to be transmitted to the receiving optical network element using the generated symmetric encryption key; and characterized in that the transmitting optical network element is further adapted to - encrypt the generated symmetric encryption key using the public key of the receiving optical network element; - transmit the encrypted payload and the encrypted symmetric encryption key via the optical network to the receiving optical network element, wherein the encrypted payload is transmitted using data frames, and wherein the encrypted symmetric encryption key is embedded in some or all of the data frames and transmitted using an Optical channel Data Unit-k, ODU-k, overhead associated to an optical channel payload unit-k, OPU-k. - an interface for receiving key information from a key management entity; - storage means for storing a public key received by the key management entity wherein the public key is associated with a receiving optical network element connectable to the transmitting optical network element via an optical network in order to transmit data; and - a key generation entity configured for generating a symmetric encryption key; - encrypt a received payload to be transmitted to the receiving optical network element using the generated symmetric encryption key; and - encrypt the generated symmetric encryption key using the public key of the receiving optical network element; - transmit the encrypted payload and the encrypted symmetric encryption key via the optical network to the receiving optical network element, wherein the encrypted payload is transmitted using data frames, and wherein the encrypted symmetric encryption key is embedded in some or all of the data frames and transmitted using an Optical channel Data Unit-k, ODU-k, overhead associated to an optical channel payload unit-k, OPU-k.
Apparatus for maintenance of a motor vehicle comprising at least one controllable vehicle component, a data bus, a memory connected to the data bus for storing a vehicle specification file comprising information about electronic control units of the motor vehicle, and at least one programmable electronic control unit arranged to control at least one of the controllable vehicle components, wherein each electronic control unit is connected to the data bus and is programmed with a respective parameter set, which apparatus comprises an apparatus connector for connection of the apparatus to the data bus of the motor vehicle, characterized in that the apparatus comprises a parameter setting module for deriving the parameter set from the vehicle specification file, and that the apparatus, when connected to the data bus through the apparatus connector and on receipt of a programming command, is arranged to read the vehicle specification file from the memory, to derive the parameter set from the vehicle specification file using the programming module and to program the electronic control unit with the derived parameter set through the data bus.
A method of enabling seeking in a rich media stream provided from a multimedia server to at least one multimedia client, wherein said multimedia server comprises an encoder, said method comprising the following steps, executed at said encoder: - inserting a seeking instruction into said media stream containing a global timeline and at least two documents, each document having a separate local timeline which begins with time instance zero, said seeking instruction being an instruction to seek in the global time line at an offset time instance Y added to a current time instance X, wherein X and Y are arbitrary time values, and to seek in the local timelines simultaneously, - encoding said rich media stream, and - transmitting the media stream to said at least one multimedia client, enabling seeking both within and over document borders at said at least one multimedia client. - inserting a seeking instruction into said media stream containing a global timeline and at least two documents, each document having a separate local timeline which begins with time instance zero, said seeking instruction being an instruction to seek in the global time line at an offset time instance Y added to a current time instance X, wherein X and Y are arbitrary time values, and to seek in the local timelines simultaneously, - encoding said rich media stream, and - transmitting the media stream to said at least one multimedia client, enabling seeking both within and over document borders at said at least one multimedia client.
A compound having the following structure: wherein: X is CH 2 F, CH 2 Br, CH 2 I, CH 2 OG, or CH 2 OGOG'; X' is H, CH 3, CH 2 F, CH 2 Cl, CH 2 Br, CH 2 I, CH 2 OJ''', CH 2 OG, or CH 2 OGOG'; J, J' and J''' are each independently H; L and L' are each independently O; Q and Q' are each independently O; Z and Z' are each independently CH; R 1 and R 2 are each independently H, or a branched or unbranched, substituted or unsubstituted C 1 -C 10 alkyl; each G and G' is independently a branched, unbranched or aromatic cyclcic or non-aroimatic cyclic, substituted or unsubstituted, saturated or unsaturated C 1 -C 10 alkyl; and wherein the optional substituent is selected from the group consisting of: oxo, OJ''', COOH, R, OH, OR, F, Cl, Br, I, NH 2, NHR, NR 2, CN, SH, SR, SO 3 H, SO 3 R, SO 2 R, OSO 3 R, and NO 2 wherein R is an unsubstituted C 1 -C 10 alkyl; for use as a medicament. X is CH 2 F, CH 2 Br, CH 2 I, CH 2 OG, or CH 2 OGOG'; X' is H, CH 3, CH 2 F, CH 2 Cl, CH 2 Br, CH 2 I, CH 2 OJ''', CH 2 OG, or CH 2 OGOG'; J, J' and J''' are each independently H; L and L' are each independently O; Q and Q' are each independently O; Z and Z' are each independently CH; R 1 and R 2 are each independently H, or a branched or unbranched, substituted or unsubstituted C 1 -C 10 alkyl; each G and G' is independently a branched, unbranched or aromatic cyclcic or non-aroimatic cyclic, substituted or unsubstituted, saturated or unsaturated C 1 -C 10 alkyl; and wherein the optional substituent is selected from the group consisting of: oxo, OJ''', COOH, R, OH, OR, F, Cl, Br, I, NH 2, NHR, NR 2, CN, SH, SR, SO 3 H, SO 3 R, SO 2 R, OSO 3 R, and NO 2 wherein R is an unsubstituted C 1 -C 10 alkyl; for use as a medicament.
Apparatus for compensating for an imbalance of a loaded laundry drum of an appliance for the treatment of laundry, having at least one hollow body, which is arranged concentrically in relation to an axis of rotation of the laundry drum and is embodied in an annular manner, and a plurality of compensating spheres (1, 5, 10), which are accommodated such that they can move and are in series in the hollow body, characterised in that at least one compensating sphere (1, 5, 10) is embodied as a composite body made of a metal sphere, a foam coating surrounding the metal sphere and a plastic coating surrounding the foam coating.
A method of increasing productivity of a Kolbe electrolysis reaction forming one or more C6 to C54 hydrocarbons, the method comprising: combining one or more C4 - C28 fatty acids with a solvent and with an amount of acetic acid to create a reaction mixture, wherein the one or more C4 - C28 fatty acids is between 80 weight percent 99.8 weight percent of a total carboxylic acid weight percent in the solvent, and wherein the amount of the acetic acid is between 0.2 weight percent to 20 weight percent of the total carboxylic acid weight percent in the solvent; and performing a Kolbe electrolysis reaction on the reaction mixture to produce the one or more C6 to C54 hydrocarbons, wherein the acetic acid in the reaction mixture lowers a passivation voltage of an electrode used in the Kolbe electrolysis reaction. combining one or more C4 - C28 fatty acids with a solvent and with an amount of acetic acid to create a reaction mixture, wherein the one or more C4 - C28 fatty acids is between 80 weight percent 99.8 weight percent of a total carboxylic acid weight percent in the solvent, and wherein the amount of the acetic acid is between 0.2 weight percent to 20 weight percent of the total carboxylic acid weight percent in the solvent; and performing a Kolbe electrolysis reaction on the reaction mixture to produce the one or more C6 to C54 hydrocarbons, wherein the acetic acid in the reaction mixture lowers a passivation voltage of an electrode used in the Kolbe electrolysis reaction.
A component for producing vacuum insulation systems, which comprises at least one insulation layer which is surrounded by a casing, wherein the gas pressure in the insulation layer can be reduced by means provided in the component, and the means for reducing the gas pressure is embodified as activatable in such a shape that it comprises an active substance encapsulated by a casing substance, characterized in that the casing substance is selected from the group consisting of waxes, paraffins, fats, oils, fatty alcohols, fatty acids, gum acacia, gum arabic, polyethylene glycols and their copolymers, and mixtures of two or more of these classes.
A composition for topical application comprising a polyaphron dispersion, wherein the polyaphron dispersion comprises a continuous phase, a discontinuous phase and crisaborole.
Harvesting machine having a harvesting attachment and a drive system for driven elements of the harvesting attachment, which drive system has a drive motor and a hydraulic drive train, which is connected between the drive motor and one or more driven elements of the harvesting attachment and has an adjustable hydraulic pump which can be driven by the drive motor, as well as a hydraulic motor, and an electronic control unit which is connected to an actuator for adjusting the hydraulic pump, characterized in that the control unit is connected to a sensor (88, 88') which is configured to generate signals which are correlated to the drive torque of the hydraulic motor, in that data which contain information as to what is the maximum drive torque the harvesting attachment can process can be fed to the control unit by an electronic memory unit of the harvesting attachment or an operator control input device, and in that the control unit can be operated such that in the event of the maximum drive torque being exceeded, said control unit instructs the actuator, on the basis of the signals of the sensor (88, 88') and the data, to lower the pressure in the hydraulic circuit in order to switch off the hydraulic motor.