mhurhangee/ep-ind-claims huggingface dataset:
An expansion assembly (150;350;550;650;750), comprising: an expandable tubular (125;325) coupled to a nose portion (130;330); a tubular body section (135;335;735) attached to the nose portion; a mandrel (155;355;755) having a bore (133;533) therethrough and being releasably coupled to the tubular body section; an expander (190;390;790) coupled to an exterior of the mandrel; characterized by a packer connected to the mandrel and disposed between the mandrel and the expandable tubular (125;325) so as to close an annular area between the mandrel and the expandable tubular; a port (164;364) providing fluid communication between the bore and the annular area; and a receptacle sleeve (210;410;610;810) disposed in the mandrel and attached to the tubular body section; wherein the receptacle sleeve sealingly engages the mandrel and sealingly engages the tubular body section and is configured to receive one or more bore obstruction objects (206;416;540;640;816). an expandable tubular (125;325) coupled to a nose portion (130;330); a tubular body section (135;335;735) attached to the nose portion; a mandrel (155;355;755) having a bore (133;533) therethrough and being releasably coupled to the tubular body section; an expander (190;390;790) coupled to an exterior of the mandrel; characterized by a packer connected to the mandrel and disposed between the mandrel and the expandable tubular (125;325) so as to close an annular area between the mandrel and the expandable tubular; a port (164;364) providing fluid communication between the bore and the annular area; and a receptacle sleeve (210;410;610;810) disposed in the mandrel and attached to the tubular body section; wherein the receptacle sleeve sealingly engages the mandrel and sealingly engages the tubular body section and is configured to receive one or more bore obstruction objects (206;416;540;640;816).
Pneumatic vehicle tire for utility vehicles, comprising a carcass, comprising a tire belt configured radially outside the carcass and comprising a profiled tread which is constructed on the tire belt, radially outside the tire belt, wherein the tire belt is formed from a plurality of tire belt plies (13, 14, 15) arranged resting one on top of the other from radially on the inside to radially on the outside, at least two of which tire belt plies (13, 15) are embodied as working plies, wherein the radially inner working ply and the radially outer working ply of the two working plies are tire belt plies comprising parallel strengthening members (23, 25) which are made of steel and are embedded in rubber, wherein the strengthening members of the radially inner working ply enclose in their orientation an angle α with the circumferential direction U where 10° ≤ α ≤ 24°, and the strengthening members of the radially outer working ply enclose an angle γ with the circumferential direction U where 10° ≤ γ ≤ 24°, wherein viewed in the circumferential direction U of the vehicle tire the strengthening members of the one working ply have an opposing axial direction of inclination to that of the strengthening members of the other working ply, characterized in that the strengthening members (23, 25) of a first (13, 15) of the two working plies (13, 15) in the tire are of nonextendible design with an extension D of D < 0.2% at 10% of the breaking force, and the strengthening members (23, 25) of the second (13, 15) of the two working plies (13, 15) in the tire are of extendible design with an extension D of D ≥ 0.2% at 10% of the breaking force, and in that a tire belt ply which is embodied as a zero degree ply is arranged between the two working plies (13, 15), which tire belt ply comprises parallel strengthening members which are embedded in rubber and which enclose in their orientation an angle β where 0° ≤ β ≤ 5° with the circumferential direction U.
A battery-powered vacuum cleaner having a body with a battery, a motor, an impeller and a dirt-collection chamber, the body having a front, a back, a first side and a second side, the body also having a bottom wall with an opening through which air can pass into the body, a rotatable brush mounted adjacent to the opening, the opening spanning a large proportion of the body between the first and second sides, the battery being located at the first side, characterised in that the motor is located at the second side with the dirt-collection chamber between the battery and the motor.
A beverage preparation machine comprising: a beverage preparation module with a bottom and a heightening device for Heightening a short cup under a beverage outlet of the beverage preparation module that is arranged to dispense beverage into a tall cup, which device comprises: - a bottom for resting on a support surface; - a platform that is supported by the bottom and that is configured for receiving said short cup and heightening thereof over the bottom; and - a means (15,16) for assembling the bottom and the platform as a unit (12,14) to an assembling means (25,26) of said module under said outlet, the assembling means (15,16;25,26) of such device and of said module are disassemblable for separating the unit (12,14) from said module and removing the unit from under said outlet, characterised in that: - the heightening device bottom and the module bottom are both arranged to rest on the same support surface and to be supported thereby during use; and - the removing of the unit (12,14) from under said outlet allows placement of said tall cup on said support surface under said outlet. - a bottom for resting on a support surface; - a platform that is supported by the bottom and that is configured for receiving said short cup and heightening thereof over the bottom; and - a means (15,16) for assembling the bottom and the platform as a unit (12,14) to an assembling means (25,26) of said module under said outlet, - the heightening device bottom and the module bottom are both arranged to rest on the same support surface and to be supported thereby during use; and - the removing of the unit (12,14) from under said outlet allows placement of said tall cup on said support surface under said outlet.
Sensor system for detecting at least one property of a sample gas in a sample gas chamber, comprising a probe for detecting the property of the sample gas, the probe having at least one sensor element and at least one housing enclosing the sensor element, the housing being configured in such a way that the sensor element can be acted on by the sample gas in the housing, the sensor system also having a receiving element that can be connected to a wall of the sample gas chamber, where the probe can be introduced into the receiving element along an insertion axis and can be fixed in the receiving element, a seal being provided, which is configured in such a way that an escape of substances from the sample gas chamber through an interspace between the housing and the receiving element and/or between the housing and the wall of the sample gas chamber can be prevented, in particular is prevented, the seal comprising at least one linear seal, the housing having a supporting element and the receiving element having a sealing element, the supporting element and the sealing element forming the linear seal and, when the probe is introduced into the receiving element, the supporting element resting on the sealing element, the sensor system also having at least one fixing element, the fixing element being designed to fix the probe with a force fit in the receiving element, the fixing element having at least one thread, the thread having a thread on the housing side and a thread on the receiving element side, characterized in that the supporting element is configured as a disc spring and encloses the probe annularly in the form of an annular shoulder, in that the property of the sample gas is the particle loading of the sample gas, in that the sensor element has at least two electrodes on a ceramic measuring surface and is configured to detect an electrical resistance between the at least two electrodes, which is influenced by the particle loading of the sample gas, and the sensor element comprises a heating element in order to ensure a suitable functioning temperature, in that the probe housing, the receiving element and the fixing element are produced from steel, and in that the linear seal is a conical radius seal, in which the sealing element has a conical surface and the supporting element has a rounded surface with a radius.
A controller including a control circuit that controls operation of a pump main body of a vacuum pump device (10,30), the controller comprising: a controller housing in which the control circuit is housed; and characterized by a plurality of heat sinks formed integrally with the controller housing and including a plurality of fins (17, 21, 33) formed so as to protrude outwardly from an outer peripheral surface of the controller housing, wherein the controller housing is formed in a rectangular shape in a plan view and has a plurality of corners, wherein the plurality of fins of the plurality of heat sinks are provided on each of the plurality of corners, and at least one indicator is provided in at least one of peripheral surface portions among the plurality of corners on the front side of the controller housing. a controller housing in which the control circuit is housed; and characterized by a plurality of heat sinks formed integrally with the controller housing and including a plurality of fins (17, 21, 33) formed so as to protrude outwardly from an outer peripheral surface of the controller housing, wherein the controller housing is formed in a rectangular shape in a plan view and has a plurality of corners, wherein the plurality of fins of the plurality of heat sinks are provided on each of the plurality of corners, and at least one indicator is provided in at least one of peripheral surface portions among the plurality of corners on the front side of the controller housing.
Device for protecting plants or crop fields or other fields from natural events, generally of a destructive nature, comprising: - supporting poles aligned with one another; - a crossbar supported by said supporting poles and maintained above the aforesaid goods to be protected; - at least a first net with a first end arranged along said crossbar and a second end, opposite the first, that can be moved away from said crossbar and/or downward; characterized in that first arms are positioned at least at the ends of the crossbar, rotatable between a closed position in which they are substantially parallel to the posts or perpendicular to the ground, and an open position in which they are arranged transversely with respect to said poles and project therefrom on one side of the device; and in that said net is available in a gathered position, in which it is at least partially wound or gathered in proximity of the crossbar, or in a spread out position, in which it is at least partially spread out on top of the first arms to cover the goods to be protected, said first arms being able to engage the net to be shifted between the closed position and the open position when the net is unwound or wound between the gathered up condition and the spread out condition. - supporting poles aligned with one another; - a crossbar supported by said supporting poles and maintained above the aforesaid goods to be protected; - at least a first net with a first end arranged along said crossbar and a second end, opposite the first, that can be moved away from said crossbar and/or downward; characterized in that first arms are positioned at least at the ends of the crossbar, rotatable between a closed position in which they are substantially parallel to the posts or perpendicular to the ground, and an open position in which they are arranged transversely with respect to said poles and project therefrom on one side of the device; and in that said net is available in a gathered position, in which it is at least partially wound or gathered in proximity of the crossbar, or in a spread out position, in which it is at least partially spread out on top of the first arms to cover the goods to be protected, said first arms being able to engage the net to be shifted between the closed position and the open position when the net is unwound or wound between the gathered up condition and the spread out condition.
A non-transitory machine-readable storage medium encoded with instructions executable by a hardware processor of a computing component, the machine-readable storage medium comprising instructions to cause the hardware processor to: identify a plurality of competing APs of an external wireless network operating on a same channel as a deployed AP (106a-c) of a deployed wireless network; examine the received signal strength indicator, RSSI, of the identified plurality of competing APs of the external wireless network; filter out selected one or more of the identified plurality of competing APs of the external wireless network based on their respective RSSIs to arrive at a filtered set of competing APs; and augment a spatial reuse group, SRG, of the deployed AP (106a-c) to include the APs in the filtered set of competing APs in the SRG. identify a plurality of competing APs of an external wireless network operating on a same channel as a deployed AP (106a-c) of a deployed wireless network; examine the received signal strength indicator, RSSI, of the identified plurality of competing APs of the external wireless network; filter out selected one or more of the identified plurality of competing APs of the external wireless network based on their respective RSSIs to arrive at a filtered set of competing APs; and augment a spatial reuse group, SRG, of the deployed AP (106a-c) to include the APs in the filtered set of competing APs in the SRG.
A segmented refractory rider arch comprising multiple refractory components bonded to one another by a bonding agent, wherein the refractory rider arch further comprises: an opposed pair of substantially vertically oriented end blocks (52, 54); a central bridge region having an upper horizontal surface and a lower arcuate surface opposite the upper horizontal surface, wherein the upper horizontal and lower arcuate surfaces extending between the opposed pair of substantially vertically oriented end blocks (52, 54), and wherein the lower arcuate surface has an apex substantially at a latitudinal midplane of the central bridge region, and wherein the central bridge region is at least latitudinally segmented along a pair of opposite downwardly converging latitudinal planes to form a central keystone refractory bridge component and adjacent pairs of refractory bridge components that are bonded to one another by the bonding agent. an opposed pair of substantially vertically oriented end blocks (52, 54); a central bridge region having an upper horizontal surface and a lower arcuate surface opposite the upper horizontal surface, wherein the upper horizontal and lower arcuate surfaces extending between the opposed pair of substantially vertically oriented end blocks (52, 54), and wherein the lower arcuate surface has an apex substantially at a latitudinal midplane of the central bridge region, and wherein the central bridge region is at least latitudinally segmented along a pair of opposite downwardly converging latitudinal planes to form a central keystone refractory bridge component and adjacent pairs of refractory bridge components that are bonded to one another by the bonding agent.
A cutting blade for vegetation comprising: a cutting blade body comprising a first base material, the cutting blade body comprising: top and bottom surfaces (38, 40), an outer surface extending around the cutting blade body vertically between the top and bottom surfaces (38, 40); a cutting edge formed along the outer surface; and wherein the cutting blade includes a cutting face extending obliquely between the top surface toward the bottom surface and the cutting edge being formed at a leading edge of the cutting face, a plurality of clad beads extending along one of the top and bottom surfaces (38, 40) transversely away from the cutting edge, characterized in that the cutting edge is non-serrated. top and bottom surfaces (38, 40), an outer surface extending around the cutting blade body vertically between the top and bottom surfaces (38, 40); a cutting edge formed along the outer surface; and wherein the cutting blade includes a cutting face extending obliquely between the top surface toward the bottom surface and the cutting edge being formed at a leading edge of the cutting face, a plurality of clad beads extending along one of the top and bottom surfaces (38, 40) transversely away from the cutting edge,
Device having a multiplicity of electrical components (BE1, BE2..BEn) for cooling the multiplicity of electrical components (BE1, BE2..BEn), wherein the electrical components (BE1, BE2..BEn) comprise in each case a component cooling surface (BEK1, BEK2..BEKn) to be cooled, wherein the device comprises a first cooling body having a first cooling body cooling surface and a second cooling body having a second cooling body cooling surface, wherein the cooling body cooling surfaces (KF1, KF2) are arranged opposite one another in a planar manner, and the first cooling body cooling surface is configured for attaching a first part quantity of the component cooling surfaces (BEK1, BEK2..BEKn) of the multiplicity of electrical components (BE1, BE2..BEn) and the second cooling body cooling surface is configured for attaching a second part quantity of the component cooling surfaces (BEK1, BEK2..BEKn) of the multiplicity of electrical components (BE1, BE2.. BEn) and fastening means (BM1, BM2..BMn) are provided for fastening the component cooling surfaces (BEK1, BEK2..BEKn), which are to be attached, of the multiplicity of electrical components (BE1, BE2..BEn) to the cooling body cooling surfaces (KF1, KF2), wherein the cooling body cooling surfaces (KF1, KF2) are configured for attaching a part of the component cooling surfaces (BEK1, BEK2..BEKn) of the multiplicity of electrical components (BE1, BE2..BEn) in such a manner that electrical components (BE1, BE2..BEn) are attached positioned adjacent to one another along a straight line in one plane, characterized in that a component cooling surface (BEK1, BEK2..BEKn) of a first electrical component (BE1, BE2..BEn) is attached to the first cooling body cooling surface and a component cooling surface (BEK1, BEK2..BEKn) of a further electrical component is attached alternately to the second cooling body cooling surface.
A method for estimating the occupancy of a parking lot comprising: obtaining map data indicating the geometry of a parking lot; determining a number of parking regions within said parking lot using said map data; generating a model of the spatial distribution of occupied parking regions as a function of the total number of occupied parking regions within the parking lot, wherein said model is generated based on historical probe data collected over a modelling period; receiving new probe data from a plurality of portable devices within said parking lot, wherein said new probe data indicates the position of each device, wherein the new probe data is different to the historical probe data and is collected over a sampling period; analysing said new probe data in accordance with said model; and outputting an estimate of the occupancy of the parking lot. obtaining map data indicating the geometry of a parking lot; determining a number of parking regions within said parking lot using said map data; generating a model of the spatial distribution of occupied parking regions as a function of the total number of occupied parking regions within the parking lot, wherein said model is generated based on historical probe data collected over a modelling period; receiving new probe data from a plurality of portable devices within said parking lot, wherein said new probe data indicates the position of each device, wherein the new probe data is different to the historical probe data and is collected over a sampling period; analysing said new probe data in accordance with said model; and outputting an estimate of the occupancy of the parking lot.
A process for forming a polymer comprising residues of 2-(4-amino phenyl)-5 amino benzimidazole (DAPBI), paraphenylene diamine, and terephthaloyl dichloride, comprising the steps of: (a) forming a solution of DAPBI and paraphenylene diamine dihydrochloride (PPD.2HCl) in a solvent system comprising an organic solvent and an inorganic salt; (b) cooling the solution to a temperature of 30°C or less; (c) adding a stoichiometric amount of terephthaloyl dichloride, relative to the total amount of the DAPBI and the paraphenylene diamine dihydrochloride, to the solution; and (d) agitating the solution of step c) to form a polymer, wherein the polymer has a IPC peak block ratio of 1.45 to 1.47 and an inherent viscosity of greater than 2 dl/g, whereby the IPC peak block ratio is determined as outlined in the Chapter titled 'Test method' of the description, and whereby the inherent viscosity is determined using a solution in which a polymer is dissolved in a concentrated sulfuric acid with a concentration of 96 wt % at a polymer concentration of 0.5 g/dl and at a temperature of 25 °C and whereby inherent viscosity is then calculated as In (t poly /t solv)/C where t poly is the drop time for the polymer solution and t solv is the drop time of the pure solvent. (a) forming a solution of DAPBI and paraphenylene diamine dihydrochloride (PPD.2HCl) in a solvent system comprising an organic solvent and an inorganic salt; (b) cooling the solution to a temperature of 30°C or less; (c) adding a stoichiometric amount of terephthaloyl dichloride, relative to the total amount of the DAPBI and the paraphenylene diamine dihydrochloride, to the solution; and (d) agitating the solution of step c) to form a polymer, wherein the polymer has a IPC peak block ratio of 1.45 to 1.47 and an inherent viscosity of greater than 2 dl/g, whereby the IPC peak block ratio is determined as outlined in the Chapter titled 'Test method' of the description, and whereby the inherent viscosity is determined using a solution in which a polymer is dissolved in a concentrated sulfuric acid with a concentration of 96 wt % at a polymer concentration of 0.5 g/dl and at a temperature of 25 °C and whereby inherent viscosity is then calculated as In (t poly /t solv)/C where t poly is the drop time for the polymer solution and t solv is the drop time of the pure solvent.