mhurhangee/ep-ind-claims huggingface dataset:
Device for producing cluster packs, comprising a single-track or multi-track container feed or single-track or multi-track container streams, at least one endless circulating transport system with at least one application element in the region of the transport system, by means of which an adherent or adhesive agent and/or at least one adherent or adhesive application can be applied on or at the container, wherein an endless circulating transport system is provided for each of the container flows, wherein linear drives (26.1, 26.3) with electrically driven carrier slides (27, 27a) are provided at the transport system, in particular electromagnetic linear drives (26.1, 26.3), with which the carrier slides (27, 27a) are driven independently of one another and can be controlled in their speed, wherein the respective linear drive (26.1, 26.3) of the respective transport system comprises a plurality of foot-side guide elements and/or head guide elements for containers, and wherein, directly downstream of the linear drive (26.1, 26.3) or of an outlet device, a separating and/or compacting unit or a separating and/or compacting segment is provided for the grouping and compacting and temporary pressing together of a predetermined number of containers, by means of which the containers are assembled downstream of the star transporter to form a cluster and are transported further.
Process for manufacturing a bicycle wheel rim at least in part made of composite material, comprising the steps of: - moulding in a moulding station a composite material comprising structural fibre incorporated in a thermosetting polymeric material into the shape of at least part of a bicycle rim, - forming at least one perforated spoke attachment seat (4, 11) in said at least one part of a bicycle rim, - coupling an insert provided with a hole at said at least one perforated seat (4, 11), said insert comprising a first surface configured for shape-coupling with the rim at said at least one spoke attachment seat and an edge projecting along at least one section of said first surface; wherein said step of forming at least one perforated seat (4, 11) is carried out in said moulding station on the structural fibre preimpregnated with thermosetting polymeric material with displacement of structural fibre and of thermosetting polymeric material before said moulding step, and wherein said step of coupling an insert is carried out in said moulding station before said moulding step, so that the insert is co-moulded with the rim and constrained to the composite material through an amassment of polymeric material on such an edge. - moulding in a moulding station a composite material comprising structural fibre incorporated in a thermosetting polymeric material into the shape of at least part of a bicycle rim, - forming at least one perforated spoke attachment seat (4, 11) in said at least one part of a bicycle rim, - coupling an insert provided with a hole at said at least one perforated seat (4, 11), said insert comprising a first surface configured for shape-coupling with the rim at said at least one spoke attachment seat and an edge projecting along at least one section of said first surface;
Use of 2 to 6% by weight of Fischer-Tropsch waxes, with respect to the weight of the cross-linked bitumen/polymer composition, comprising a cross-linked copolymer of styrene and butadiene, the cross-linked bitumen/polymer composition comprising from 2% to 8% by weight of a styrene and butadiene copolymer, based on the weight of the cross-linked bitumen/polymer composition in a cross-linked bitumen/polymer composition, to improve resistance against petroleum hydrocarbons selected from kerosenes and/or gas oils of said cross-linked bitumen/polymer composition, said styrene-butadiene copolymer has a content of 1,2-butadiene-derived double-bond units comprised between 10% and 40% by weight, relative to the total weight of butadiene units and has an average molecular weight Mw of between 10,000 and 500,000 Daltons, measured by GPC chromatography with a polystyrene standard according to the ASTM D3536 standard, said cross-linked bitumen/polymer composition having a maximum elongation, according to standard NF EN 13587, greater than or equal to 400%, a maximum elongation stress, according to standard NF EN 13587, greater than or equal to 0.4 MPa, a conventional energy at 400% according to standard NF EN 13587, greater than or equal to 3 J/cm 2 and a total energy, according to standard NF EN 13587, greater than or equal to 1 J.
A grenade launcher comprising: a receiver body, which is substantially an inverted L-shaped, with a forward pointing arm and a proximal arm, wherein the proximal arm is configured for housing a trigger mechanism; and a barrel connected below the forward pointing receiver arm by a barrel pivot and a latch mechanism; wherein the latch mechanism comprises a latch disposed in the forward receiver arm and is operable to engage with a catch disposed on a top portion of the barrel so that: when the latch is engaged with the catch, the barrel is in a closed position and longitudinal X-axes of both the barrel and the forward receiver arm are substantially parallel, and when the latch is actuated by an appendage of a left or right hand of a user supporting the barrel, the latch becomes released from the catch, thereby allowing the barrel to droop or pivot away from the forward receiver arm about a transverse Y-axis at the barrel pivot characterised in that a chamber end of the barrel is operable to be turned laterally to the left or right hand side about a vertical Z-axis at the barrel pivot ambidextrously, so that a cartridge can be loaded into or unloaded from the chamber end without obstruction by the proximal arm. a receiver body, which is substantially an inverted L-shaped, with a forward pointing arm and a proximal arm, wherein the proximal arm is configured for housing a trigger mechanism; and a barrel connected below the forward pointing receiver arm by a barrel pivot and a latch mechanism; wherein the latch mechanism comprises a latch disposed in the forward receiver arm and is operable to engage with a catch disposed on a top portion of the barrel so that: when the latch is engaged with the catch, the barrel is in a closed position and longitudinal X-axes of both the barrel and the forward receiver arm are substantially parallel, and when the latch is actuated by an appendage of a left or right hand of a user supporting the barrel, the latch becomes released from the catch, thereby allowing the barrel to droop or pivot away from the forward receiver arm about a transverse Y-axis at the barrel pivot characterised in that a chamber end of the barrel is operable to be turned laterally to the left or right hand side about a vertical Z-axis at the barrel pivot ambidextrously, so that a cartridge can be loaded into or unloaded from the chamber end without obstruction by the proximal arm. when the latch is engaged with the catch, the barrel is in a closed position and longitudinal X-axes of both the barrel and the forward receiver arm are substantially parallel, and when the latch is actuated by an appendage of a left or right hand of a user supporting the barrel, the latch becomes released from the catch, thereby allowing the barrel to droop or pivot away from the forward receiver arm about a transverse Y-axis at the barrel pivot characterised in that a chamber end of the barrel is operable to be turned laterally to the left or right hand side about a vertical Z-axis at the barrel pivot ambidextrously, so that a cartridge can be loaded into or unloaded from the chamber end without obstruction by the proximal arm.
Particulate composite lubricant for powder metal compositions, wherein the composite lubricant comprises particles constituted of a core of a solid organic lubricant which core has fine carbon particles adhered thereon.
An apparatus for detecting a marker in liquefied petroleum gas, comprising: a conduit; a connector coupled to the conduit to allow the apparatus to be removably coupled to a liquefied petroleum gas source; a vessel coupled to the conduit; a first valve, a second valve and a third valve coupled to the conduit, wherein the first valve is configured to allow pressurized liquefied petroleum gas from the liquefied petroleum gas source to flow into the vessel, wherein the second valve is configured to allow the pressurized liquefied petroleum gas to be released from the apparatus in a gaseous state and wherein the third valve is configured to allow the pressurized liquefied petroleum gas to be released from the apparatus in a liquid state; and a detector coupled to the vessel, wherein the detector is operable to detect a property of the marker in the pressurized liquefied petroleum gas in the vessel. a conduit; a connector coupled to the conduit to allow the apparatus to be removably coupled to a liquefied petroleum gas source; a vessel coupled to the conduit; a first valve, a second valve and a third valve coupled to the conduit, wherein the first valve is configured to allow pressurized liquefied petroleum gas from the liquefied petroleum gas source to flow into the vessel, wherein the second valve is configured to allow the pressurized liquefied petroleum gas to be released from the apparatus in a gaseous state and wherein the third valve is configured to allow the pressurized liquefied petroleum gas to be released from the apparatus in a liquid state; and a detector coupled to the vessel, wherein the detector is operable to detect a property of the marker in the pressurized liquefied petroleum gas in the vessel.
Nozzle for a liquid-cooled plasma arc torch head, comprising: a body with an axial overall length L, an inner surface (2.20) and an outer surface (2.22), a front (2.24) and a rear end (2.26) and a nozzle opening (2.28) at the front end (2.24), wherein the outer surface (2.22) of the body, starting from the rear end (2.26), has a substantially cylindrical first section (2.1) with an axial length L1, in which, at the rear end (2.26) of the body, a groove (2.10) preferably extending in the circumferential direction for an annular ring (2.42) or having one arranged therein, which is delimited towards the rear end (2.26) of the body by a projection (2.30) which defines a first external diameter D11 of the body and, at the front end, there is a centring surface (All) for a nozzle holder, which defines a second external diameter D12 of the body, and a second section (2.2) adjoining it towards the front end (2.24) has an axial length L2, which has an axial stop surface for the nozzle holder at the boundary to the first section (2.1), which defines a third external diameter of the body and, at least in a subsection, tapers substantially conically towards the front end (2.24) of the body, characterized in that D 12 − D 11 ≥ 1.5 mm, and/or D 12 − D 11 / D 12 ≥ 0.07. a body with an axial overall length L, an inner surface (2.20) and an outer surface (2.22), a front (2.24) and a rear end (2.26) and a nozzle opening (2.28) at the front end (2.24), wherein the outer surface (2.22) of the body, starting from the rear end (2.26), has a substantially cylindrical first section (2.1) with an axial length L1, in which, at the rear end (2.26) of the body, a groove (2.10) preferably extending in the circumferential direction for an annular ring (2.42) or having one arranged therein, which is delimited towards the rear end (2.26) of the body by a projection (2.30) which defines a first external diameter D11 of the body and, at the front end, there is a centring surface (All) for a nozzle holder, which defines a second external diameter D12 of the body, and a second section (2.2) adjoining it towards the front end (2.24) has an axial length L2, which has an axial stop surface for the nozzle holder at the boundary to the first section (2.1), which defines a third external diameter of the body and, at least in a subsection, tapers substantially conically towards the front end (2.24) of the body, characterized in that D 12 − D 11 ≥ 1.5 mm, and/or D 12 − D 11 / D 12 ≥ 0.07.
An audio encoding method comprising: performing first filtering on an audio signal; detecting a pitch of the first filtered audio signal which results from the first filtering; determining a filter coefficient based on the detected pitch; performing second filtering on the audio signal, based on the determined filter coefficient; and encoding the second filtered audio signal resulting from the second filtering. performing first filtering on an audio signal; detecting a pitch of the first filtered audio signal which results from the first filtering; determining a filter coefficient based on the detected pitch; performing second filtering on the audio signal, based on the determined filter coefficient; and encoding the second filtered audio signal resulting from the second filtering.
An apparatus for preparing a food stuff comprising - a main body with a rotating shaft, and - a container for receiving a food stuff having a tubular member upstanding in the container with an opening at a free end, wherein the shaft is receivable in the tubular member, wherein the tubular member comprises a sealing element, which is configured to form a seal with the shaft, or the shaft comprises a sealing element, which is configured to form a seal with the tubular member, characterised in that the free end of the tubular member extends above the rim of the container, and the sealing element is disposed at the opening of the free end of the tubular member so that a fluid, solid or steam cannot pass through the opening into the tubular member. - a main body with a rotating shaft, and - a container for receiving a food stuff having a tubular member upstanding in the container with an opening at a free end,
Ventilation valve for a fuel tank, comprising a ventilation inlet which is able to be connected to a ventilation line of the fuel tank, a ventilation outlet which is able to be connected to the surroundings and a filler neck opening which is able to be connected to a filler neck of the fuel tank, whereby the ventilation valve comprises a first closure body of low density, that is of a density which is lower than the density of the fuel foreseen, a first sealing seat for the first closure body, a second closure body of high density, that is of a density which is greater than the density of the fuel foreseen, as well as a second sealing seat for the second closure body which is different from the first sealing seat, wherein in the installed position the first sealing seat is arranged above the first closure body and the second sealing seat is arranged above the second closure body, characterized in that the ventilation valve comprises a first chamber which is in fluidic connection with the ventilation outlet and with the filler neck opening and comprises a second chamber which is in fluidic connection with the ventilation inlet and with the filler neck opening, wherein the first chamber is not in direct fluidic connection with the second chamber, but only via the filler neck.
An electrically powered apparatus for generating a solute to sanitise a body of water, a by-product of such generation being an explosive gas, said apparatus including: a) an electrolytic cell operable only in a substantially vertical orientation and through a range of angles either side of the vertical up to a predetermined maximum angle, the maximum angle being 45 degrees or less, said electrolytic cell comprising a lower end and electrodes; b) a water inlet and outlet both located at the lower end of said electrolytic cell; and c) a defined space surrounding said electrodes of said electrolytic cell, characterised in that, said inlet and said outlet are in communication with each other by a water by-pass means; and in the event that water flow through said apparatus ceases and said electrolytic cell continues to produce said explosive gas, said explosive gas will displace water in said defined space until there is no water around or between said electrodes that would enable electrolysis and explosive gas production to continue and the maximum accumulated volume of said explosive gas is substantially restricted to that of said defined space; and said water by-pass means is located within a lower body of the electrolytic cell. a) an electrolytic cell operable only in a substantially vertical orientation and through a range of angles either side of the vertical up to a predetermined maximum angle, the maximum angle being 45 degrees or less, said electrolytic cell comprising a lower end and electrodes; b) a water inlet and outlet both located at the lower end of said electrolytic cell; and c) a defined space surrounding said electrodes of said electrolytic cell,
A system for managing working modes of a mobile crane in a job site, the system comprising: - a position sensor for the mobile crane in the job site, - a position sensor for the hook of the mobile crane relative to a reference point of said mobile crane, - a module for managing the working mode of the mobile crane configured to define the working mode of the mobile crane selected from: - the "displacement" mode corresponding to a displacement of the mobile crane in the job site, - the "fixed work" mode corresponding to a situation in which the mobile crane is fixed in the job site and the position of its hook is variable, - a communication device configured to communicate an indication of the working mode of the mobile crane to at least one other crane of the job site. - a position sensor for the mobile crane in the job site, - a position sensor for the hook of the mobile crane relative to a reference point of said mobile crane, - a module for managing the working mode of the mobile crane configured to define the working mode of the mobile crane selected from: - the "displacement" mode corresponding to a displacement of the mobile crane in the job site, - the "fixed work" mode corresponding to a situation in which the mobile crane is fixed in the job site and the position of its hook is variable, - the "displacement" mode corresponding to a displacement of the mobile crane in the job site, - the "fixed work" mode corresponding to a situation in which the mobile crane is fixed in the job site and the position of its hook is variable, - a communication device configured to communicate an indication of the working mode of the mobile crane to at least one other crane of the job site.
Furnace with at least two vertical shafts, which comprise in each case at their upper end a combustible material feed and at their lower end a combustible material outlet and which are connected by means of an overflow channel, wherein at least one main burner is provided in each case above the overflow channel and a cooling gas feed is provided in each case below the overflow channel, wherein in the shafts at least one additional burner is in each case arranged below the overflow channel, characterized by a control device, which provides an operating state in which the additional burner or burners is/are only operated in the combustion-operated shaft or in both shafts.
A process for comminuting polycrystalline silicon rods into chunks by means of at least one comminuting tool having a surface comprising tungsten carbide, wherein the tool surface has a tungsten carbide content of less than or equal to 95% and the median grain size of the tungsten carbide particles - weighted by mass - is greater than or equal to 0.8 μm, or wherein the tool surface has a tungsten carbide content of greater than or equal to 80% and the median grain size of the tungsten carbide particles is less than or equal to 0.5 μm, characterized in that the process comprises at least two comminution steps, at least one of them a comminution step with a comminuting tool having a grain size of the tungsten carbide particles of greater than or equal to 0.8 μm, preferably greater than or equal to 1.3 μm, or at least one comminution step with a comminuting tool having a grain size of the tungsten carbide particles of less than or equal to 0.5 μm, preferably less than or equal to 0.2 μm.
A system, comprising: a plurality of initiator components (116, 118, 120, 122, 124, 134, 136, 138, 140; and a plurality of target components (126, 128, 132, 144, 200); characterized in that each initiator component is associated with a different initiator firewall arranged to monitor accesses initiated by the associated initiator component and each target component is associated with a different target firewall arranged to monitor accesses to the associated target component, wherein each of the initiator and target firewalls comprises a first logic (306-figure 4) adapted to use qualifiers received from an initiator component or to determine which of a plurality of storages matches said qualifiers, said first logic (306-figure 4) arranged to generate a first signal indicative of a storage matching said qualifiers; and a second logic (308-figure 4) adapted to use a target address received from the initiator component to determine which of said plurality of storages matches said target address, said second logic arranged to generate a second signal (324,328) indicative of a storage matching said target address; a third logic adapted to determine whether the storage associated with the first signal matches the storage associated with the second signal; wherein the qualifiers indicate security mode attributes associated with the initiator component. a plurality of initiator components (116, 118, 120, 122, 124, 134, 136, 138, 140; and a plurality of target components (126, 128, 132, 144, 200); characterized in that each initiator component is associated with a different initiator firewall arranged to monitor accesses initiated by the associated initiator component and each target component is associated with a different target firewall arranged to monitor accesses to the associated target component, wherein each of the initiator and target firewalls comprises a first logic (306-figure 4) adapted to use qualifiers received from an initiator component or to determine which of a plurality of storages matches said qualifiers, said first logic (306-figure 4) arranged to generate a first signal indicative of a storage matching said qualifiers; and a second logic (308-figure 4) adapted to use a target address received from the initiator component to determine which of said plurality of storages matches said target address, said second logic arranged to generate a second signal (324,328) indicative of a storage matching said target address; a third logic adapted to determine whether the storage associated with the first signal matches the storage associated with the second signal; wherein the qualifiers indicate security mode attributes associated with the initiator component.
A lyocell material for a cigarette filter manufactured by the method of spinning a lyocell spinning dope comprising a cellulose pulp and an N-methylmorpholine-N-oxide (NMMO) aqueous solution to produce lyocell multifilaments which are then crimped, and wherein the lyocell spinning dope comprises 6 ~ 16 wt% of the cellulose pulp and 84 ~ 94 wt% of the NMMO aqueous solution, wherein the NMMO aqueous solution comprises NMMO and water at a weight ratio of 93:7 to 85: 15, wherein the cellulose pulp comprises 85 ~ 97 wt% of alpha-cellulose, and has a degree of polymerization (DPw) of 600 ~ 1700, and wherein the lyocell has 15 ~ 30 crimps per 0.0254 m (1 inch). wherein the lyocell spinning dope comprises 6 ~ 16 wt% of the cellulose pulp and 84 ~ 94 wt% of the NMMO aqueous solution, wherein the NMMO aqueous solution comprises NMMO and water at a weight ratio of 93:7 to 85: 15, wherein the cellulose pulp comprises 85 ~ 97 wt% of alpha-cellulose, and has a degree of polymerization (DPw) of 600 ~ 1700, and wherein the lyocell has 15 ~ 30 crimps per 0.0254 m (1 inch).