mhurhangee/ep-ind-claims huggingface dataset:
A railway vehicle, in particular a long-distance train, including a plurality of cars (12, 20) articulated to one another, the plurality of cars including: - a single first key car, having a first architecture, the first key car extending in a longitudinal direction between two first ends each supported by a respective bogie, - a plurality of second cars, having second architectures similar to one another and different from the first architecture, each second car extending in a longitudinal direction between two second ends each supported by a respective bogie, characterized in that: - the first key car has no dining area, and in that one of the second cars includes a dining area, the dining area including a preparation part and a room arranged specifically for dining, including tables and/or seats, - the first key car extends in a longitudinal direction between two first ends, its first architecture comprising, at each first end, support means for an adjacent second car, - the second architecture of each second car comprising at one of its second ends, support means for another adjacent second car, and at the other of its ends, means for connecting to support means (18, 28) of an adjacent first or second car. - a single first key car, having a first architecture, the first key car extending in a longitudinal direction between two first ends each supported by a respective bogie, - a plurality of second cars, having second architectures similar to one another and different from the first architecture, each second car extending in a longitudinal direction between two second ends each supported by a respective bogie, - the first key car has no dining area, and in that one of the second cars includes a dining area, the dining area including a preparation part and a room arranged specifically for dining, including tables and/or seats, - the first key car extends in a longitudinal direction between two first ends, its first architecture comprising, at each first end, support means for an adjacent second car, - the second architecture of each second car comprising at one of its second ends, support means for another adjacent second car, and at the other of its ends, means for connecting to support means (18, 28) of an adjacent first or second car.
A decoding method for decoding coded data of a current block included in a current picture, the decoding method comprising: specifying a co-located block which is a block included in a second picture that is different from the current picture, the co-located block being located in the second picture at the same position that the current block is located in the current picture; determining first and second motion vectors of the current block for performing motion compensation on the current block, using a third motion vector which is a motion vector of the co-located block; generating a first predictive image of the current block using the first motion vector of the current block and a second predictive image of the current block using the second motion vector of the current block; generating a predictive image of the current block based on the first predictive image and the second predictive image; decoding the coded data of the current block to obtain a difference image of the current block; and reconstructing the current block by adding the difference image of the current block and the predictive image of the current block, characterized in that, in the case where a reference picture referred to by the third motion vector is stored in a long-term picture buffer, (i) the first motion vector, which refers to the reference picture stored in the long term picture buffer, is determined to be equal to the third motion vector, and (ii) the second motion vector, which refers to the second picture that is different from the current picture, is determined to be equal to a value of 0. specifying a co-located block which is a block included in a second picture that is different from the current picture, the co-located block being located in the second picture at the same position that the current block is located in the current picture; determining first and second motion vectors of the current block for performing motion compensation on the current block, using a third motion vector which is a motion vector of the co-located block; generating a first predictive image of the current block using the first motion vector of the current block and a second predictive image of the current block using the second motion vector of the current block; generating a predictive image of the current block based on the first predictive image and the second predictive image; decoding the coded data of the current block to obtain a difference image of the current block; and reconstructing the current block by adding the difference image of the current block and the predictive image of the current block, characterized in that, in the case where a reference picture referred to by the third motion vector is stored in a long-term picture buffer, (i) the first motion vector, which refers to the reference picture stored in the long term picture buffer, is determined to be equal to the third motion vector, and (ii) the second motion vector, which refers to the second picture that is different from the current picture, is determined to be equal to a value of 0.
A compound having a general structure of Formula I: wherein X is O, OCH 2, OCH 2 CH=CH or OCH 2 C≡C. Y is any one of formulae IIa-IIc: wherein is an attachment to X and Formula IIa comprises a ring having R 2 as a substituent, and Z in Formulae IIa-IIc is CH 2, CH=CH, C=C or a direct bond, numbers 2, 3, and 4 are ring positions on a terminal ring having R 1 as a substituent, the terminal ring of Formula I comprises C, CH or aza at each ring position, and R 1 and R 2 in Formulae I and IIa are each one, two, or three substituents located at any available ring position and are independently H, F, Cl, CF 3, OCF 2 H, OCF 3, or combinations thereof. wherein X is O, OCH 2, OCH 2 CH=CH or OCH 2 C≡C. Y is any one of formulae IIa-IIc: wherein is an attachment to X and Formula IIa comprises a ring having R 2 as a substituent, and Z in Formulae IIa-IIc is CH 2, CH=CH, C=C or a direct bond, wherein is an attachment to X and Formula IIa comprises a ring having R 2 as a substituent, and Z in Formulae IIa-IIc is CH 2, CH=CH, C=C or a direct bond, numbers 2, 3, and 4 are ring positions on a terminal ring having R 1 as a substituent, the terminal ring of Formula I comprises C, CH or aza at each ring position, and R 1 and R 2 in Formulae I and IIa are each one, two, or three substituents located at any available ring position and are independently H, F, Cl, CF 3, OCF 2 H, OCF 3, or combinations thereof.
A method for converting session control signaling, wherein a first adaptation unit is located on the A-interface or Iu-Interface between the base station subsystem, BSS, or radio access network A, RAN-A, and the mobile switching center, MSC, used after an inter-MSC handover, the method comprising: converting, by the first adaptation unit, a session control signaling message of a CS session leg into a session control signaling message of an IP multimedia subsystem, IMS, session leg; or converting, by the first adaptation unit, a session control signaling message of an IMS session leg into a session control signaling message of a CS session leg; the session control signaling message of the CS session leg connected to the first adaptation unit is an A-interface signaling message or an Iu interface signaling message; and the session control signaling message of the IMS session leg connected to the first adaptation unit is a Session Initiation Protocol, SIP, signaling message. converting, by the first adaptation unit, a session control signaling message of a CS session leg into a session control signaling message of an IP multimedia subsystem, IMS, session leg; or converting, by the first adaptation unit, a session control signaling message of an IMS session leg into a session control signaling message of a CS session leg; the session control signaling message of the CS session leg connected to the first adaptation unit is an A-interface signaling message or an Iu interface signaling message; and the session control signaling message of the IMS session leg connected to the first adaptation unit is a Session Initiation Protocol, SIP, signaling message.
Crystalline form of Linagliptin benzoate having an X-ray powder diffraction pattern comprising peaks at 2-theta angles of 8.0 ± 0.2°, 8.7 ± 0.2°, 10.4 ± 0.2°, 12.9 ± 0.2°, 13.8 ± 0.2° and 17.4 ± 0.2°, obtained with a diffractometer equipped with a theta/theta coupled goniometer in transmission geometry with Cu-Kα1,2 radiation, having a wavelength of 0.15419 nm, with a focusing mirror and a solid state PIXcel detector.
A method for enhanced extraction of cannabis oil from a cannabis plant material, the cannabis plant material is characterized by a cannabis strain and a cannabis plant part, the method comprising a step of comminuting said cannabis plant material to a powder of a preselected particle size distribution characterized by 10 ≤ Dv ≤ 100 μm as determined by laser diffraction particle size analysis prior to extraction process, wherein said PSD is preselected in accordance with said cannabis strain and said plant part.
A christmas tree of an oil or gas well, comprising: a tree body having a production bore; and a production wing branch having a perpendicular extension, the perpendicular extension having an outlet; characterised by: a choke body disposed on the perpendicular extension of the production wing branch; and a diverter assembly being locatable in the perpendicular extension of the production wing branch, the diverter assembly comprising a conduit received in an interior bore in the choke body, the conduit having an inlet in fluid communication with the conduit, and the diverter assembly having a seal sealing with the perpendicular extension of the production wing branch; wherein fluid flowing between the production bore and the outlet flows through the diverter assembly. a tree body having a production bore; and a production wing branch having a perpendicular extension, the perpendicular extension having an outlet; characterised by: a choke body disposed on the perpendicular extension of the production wing branch; and a diverter assembly being locatable in the perpendicular extension of the production wing branch, the diverter assembly comprising a conduit received in an interior bore in the choke body, the conduit having an inlet in fluid communication with the conduit, and the diverter assembly having a seal sealing with the perpendicular extension of the production wing branch; wherein fluid flowing between the production bore and the outlet flows through the diverter assembly. a choke body disposed on the perpendicular extension of the production wing branch; and a diverter assembly being locatable in the perpendicular extension of the production wing branch, the diverter assembly comprising a conduit received in an interior bore in the choke body, the conduit having an inlet in fluid communication with the conduit, and the diverter assembly having a seal sealing with the perpendicular extension of the production wing branch; wherein fluid flowing between the production bore and the outlet flows through the diverter assembly.
Fluid transport circuit element, comprising a body provided with a channel having an end portion and a tubular connection insert which is received in said end portion and which is provided internally with means (6, 9) for sealingly retaining a tube and externally with anchoring teeth, characterized in that the end portion of the channel has a central axis and is delimited by a wall including at least a first axial portion (12; 22) relatively close to the central axis and a second axial portion relatively distant from the central axis so that the teeth exert an anchoring force on the first portion and do not exert any anchoring force on the second axial portion.
A method of peeling a mother protective film from a mother display panel, the method comprising: laminating the mother protective film on the mother display panel, the mother display panel comprising a plurality of display cells each comprising a display area and a peripheral area, wherein the peripheral area is in an outer portion of the display cells; forming a target area and a dummy area on the mother protective film by forming a cutting line on the mother protective film having a closed loop shape enclosing the target area corresponding to the display cells and an additional cutting line on the mother protective film in a first direction, wherein the additional cutting line is connected to the cutting line arranging a fixing member on the mother protective film within the target area enclosed by the cutting line; and physically peeling off the dummy area of the mother protective film from the mother display panel, wherein the physically peeling off of the dummy area of the mother protective film comprises applying an external force along the additional cutting line in the first direction. laminating the mother protective film on the mother display panel, the mother display panel comprising a plurality of display cells each comprising a display area and a peripheral area, wherein the peripheral area is in an outer portion of the display cells; forming a target area and a dummy area on the mother protective film by forming a cutting line on the mother protective film having a closed loop shape enclosing the target area corresponding to the display cells and an additional cutting line on the mother protective film in a first direction, wherein the additional cutting line is connected to the cutting line arranging a fixing member on the mother protective film within the target area enclosed by the cutting line; and physically peeling off the dummy area of the mother protective film from the mother display panel, wherein the physically peeling off of the dummy area of the mother protective film comprises applying an external force along the additional cutting line in the first direction.
A method of making an aluminum salt composition comprising: I) heating an aqueous solution of an aluminum chloride compound having an aluminum to chloride molar ratio of 0.3:1 to 3:1 to a temperature of at least 50°C to reflux temperature for a period of time of at least 1 hour; II) providing an aqueous solution containing a source of an alkaline earth metal to obtain a pH adjusted aluminum salt solution having a pH of 2 to 5; and wherein at least one basic organic buffer is included with at least one of I) the aqueous solution of the aluminum and chloride containing salt, and II) the aqueous solution containing the alkaline earth metal, wherein the pH adjusted aluminum salt solution has an aluminum salt with an OH:Al molar ratio of 2:1 to 2.6:1, wherein a basic organic buffer to alkaline earth metal ion molar ratio is 0.22:1 to 18:1, and further wherein the basic organic buffer is selected from the group consisting of arginine, lysine, histidine, cysteine, tyrosine, and urea. I) heating an aqueous solution of an aluminum chloride compound having an aluminum to chloride molar ratio of 0.3:1 to 3:1 to a temperature of at least 50°C to reflux temperature for a period of time of at least 1 hour; II) providing an aqueous solution containing a source of an alkaline earth metal to obtain a pH adjusted aluminum salt solution having a pH of 2 to 5; and wherein at least one basic organic buffer is included with at least one of I) the aqueous solution of the aluminum and chloride containing salt, and II) the aqueous solution containing the alkaline earth metal, wherein the pH adjusted aluminum salt solution has an aluminum salt with an OH:Al molar ratio of 2:1 to 2.6:1, wherein a basic organic buffer to alkaline earth metal ion molar ratio is 0.22:1 to 18:1, and further wherein the basic organic buffer is selected from the group consisting of arginine, lysine, histidine, cysteine, tyrosine, and urea.
Method for fine grinding of mineral materials, such as, for example, limestone, cement clinker, granulated slag or other recycling materials, to finished quality in a circuit with a sifter, wherein the grinding stock is subjected to a dual loading and the main loading is carried out in the roller gap between two rollers which rotate in opposite directions and which are supported horizontally, characterised in that a first roller (2.2) is constructed as a driven grinding roller, whilst a second roller (1.1) having a larger diameter is towed by the first roller (2.2), wherein the first roller (2.2) is securely and non-displaceably supported in longitudinal receiving members, whilst the second roller (1.1) with a loading surface is hydro-pneumatically applied to the first roller (2.2), or the second roller (1.1) which has a larger diameter is securely and non-displaceably supported in longitudinal receiving members, whilst the first roller (2.2) is hydro-pneumatically applied to the loading surface of the second roller (1.1) and the material which is intended to be crushed, prior to being crushed in the roller gap between the two rollers (1.1, 2.2) which are supported in the longitudinal receiving members which are inclined through from 10 to 30 degrees with respect to the horizontal, is subjected to a shearing and frictional loading in a feeding device by means of a speed-regulated fine crushing roller having a resiliently adjustable loading wall in order to be subsequently fed in a controllable manner as an extruded layer with a predetermined thickness onto the loading surface in the apex region of the second roller (1.1) and to be transported into the roller gap of the rollers (1.1, 2.2) for crushing.
Support part for supporting an LCD display module of an electronic device, comprising at least one receiving element for receiving a pressing device for pressing on a dummy key, said part being characterized in that it comprises at least one attaching element to secure said part to a PCB of the electronic device such that the pressing device is compressed between said support part and said PCB.
A driving direction indicator module for an outside rear view mirror assembly for a motor vehicle, in the form of a indicator light module, having a light source, a first light guide comprising a plurality of light coupling-out points and a second light guide, wherein a radiation region is disposed in a region of the second end (3") of the first light guide which is arranged opposite the first end of the first light guide, characterized in that the one light source couples in a first radiation part at a first end into the first light guide and a second radiation part at a first end into the second light guide, wherein the second light guide runs at least partially parallel to the first light guide, and its second end (5") terminates in a single light coupling-out region of the second light guide, wherein the second light guide approaches the second end (3") of the first light guide at its second end (5") only in order to introduce light rays into the radiation region via a gap, wherein the two light guides (3, 5) run in parallel from their respective first ends (3', 5') over a majority of the driving direction indicator module.
Sports stadium with a turf field and a surrounding spectators stand, wherein the turf field is made up of a plurality of turf modules supported on a fixed support base, the upper face of the turf modules being turf, which turf modules are movable on the fixed support base, and movable between an application mode on the fixed support base and a storage mode in a storage location, characterized in that - the turf modules comprise integrated module resource lines distributing resources to the turf; - the turf modules comprise a module resource connection adapted to connect to a fixed resource connection. - the turf modules comprise integrated module resource lines distributing resources to the turf; - the turf modules comprise a module resource connection adapted to connect to a fixed resource connection.
A microfluidic system including a cellulosic substrate in sheet form, the substrate having a hydrophobic treatment thereon defining at least one hydrophilic channel, the at least one hydrophilic microfluidic channel being supported on a surface of the substrate, and at least one functional component formed as part of the substrate providing a switch for controlling fluid flow along the microfluidic channel, wherein the functional component is formed by at least one cut provided within the substrate for defining a portion of the substrate displaceable relative to the remainder of the substrate, the substrate portion supporting at least part of the microfluidic channel.
A refrigerant compressor system, comprising at least one low-pressure stage and at least one high-pressure stage, a suction duct leading from a suction connection for the refrigerant to the low-pressure stage, an intermediate-pressure duct leading from the low-pressure stage to the high-pressure stage, a high-pressure connection connected to the high-pressure stage, wherein there is provided a lubricant bath to which the intermediate pressure in the intermediate-pressure duct is applied, characterized in that a lubricant feed device draws lubricant from the lubricant bath representing a lubricant reservoir and feeds said lubricant to the induced refrigerant flowing to the low-pressure stage in an intake path.
Device for continuous desulphurisation of liquid iron comprising a desulphurisation reactor or a plurality of consecutive desulphurisation reactors (A, B,..), wherein the desulphurisation reactor or reactors each comprise an entry section for receiving liquid iron from liquid iron production means or from the desulphurisation reactor immediately preceding the subsequent desulphurisation reactor, and a reaction section for removing the sulphur from the liquid iron, wherein the entry section and the reaction section in the desulphurisation reactors act as communicating vessels, wherein a passage is provided between the entry section and the reaction section to allow, in use, the liquid iron to flow from the entry section to the reaction section, wherein supply means for the liquid iron into the first or only desulphurisation reactor are provided in the entry section, and wherein means for introducing reagents into the liquid iron in the reaction section or in the entry section are provided and wherein the means for introducing reagents into the liquid iron comprise a submerged lance, and wherein an outlet is provided in the reaction section, preferably at or near the top of the reaction section, to allow desulphurised liquid iron to exit the reaction section, and wherein (i) a return passage is provided between the reaction section of desulphurisation reactor and the entry section of said desulphurisation reactor, and/or (ii) wherein a return passage is provided between the first and the second desulphurisation reactor (A, B,..), wherein the return passage connects the entry section of the second reactor to the reaction section of the first desulphurisation reactor, to increase, in use, the residence time of the liquid iron in the device. (i) a return passage is provided between the reaction section of desulphurisation reactor and the entry section of said desulphurisation reactor, and/or (ii) wherein a return passage is provided between the first and the second desulphurisation reactor (A, B,..), wherein the return passage connects the entry section of the second reactor to the reaction section of the first desulphurisation reactor,