mhurhangee/ep-ind-claims huggingface dataset:
A heat dissipation bracket for a battery pack assembly, comprising: a plurality of battery support brackets with an open end in a lower portion thereof; and a baffle mated with the open end, wherein the open end and the upper end of the battery support bracket and the two sides of the baffle are provided with corresponding horizontal protruding edges; the open end of one of the plurality of battery support brackets is provided with the baffle, while the rest of the battery support brackets are vertically stacked and disposed on the upper end of the battery support brackets; the battery support bracket, the baffle, and the stacked battery support brackets are connected through bolts in the corresponding horizontal protruding edges; a plurality of battery positioning slots are formed by the battery support brackets and the inner wall of the baffle; a plurality of raised bars are formed on the outer wall of the baffle along the longitudinal axial direction of the battery positioning slots, and a heat exchange channel is formed between the raised bars on the outer wall and the battery positioning slots on the inner wall, characterized in that the brackets are mechanically linked to one another by means of horizontal protruding edges on the open end of the battery support bracket contacting the upper surface of the horizontal protruding bulge comprising corresponding horizontal protruding edges on the upper end of the adjacent battery support bracket. a plurality of battery support brackets with an open end in a lower portion thereof; and a baffle mated with the open end, wherein the open end and the upper end of the battery support bracket and the two sides of the baffle are provided with corresponding horizontal protruding edges; the open end of one of the plurality of battery support brackets is provided with the baffle, while the rest of the battery support brackets are vertically stacked and disposed on the upper end of the battery support brackets; the battery support bracket, the baffle, and the stacked battery support brackets are connected through bolts in the corresponding horizontal protruding edges; a plurality of battery positioning slots are formed by the battery support brackets and the inner wall of the baffle; a plurality of raised bars are formed on the outer wall of the baffle along the longitudinal axial direction of the battery positioning slots, and a heat exchange channel is formed between the raised bars on the outer wall and the battery positioning slots on the inner wall, characterized in that the brackets are mechanically linked to one another by means of horizontal protruding edges on the open end of the battery support bracket contacting the upper surface of the horizontal protruding bulge comprising corresponding horizontal protruding edges on the upper end of the adjacent battery support bracket.
A space-efficient vehicle galley-mounted trash compaction system comprising: a vertically aligned and oriented compactor mechanism, trash receptacle, compaction bin, and collection bin where the compactor mechanism is located above the trash receptacle and includes an actuator operatively coupled with the compaction bin to compact trash in the compaction bin, the trash receptacle is located above the compaction bin, and the compaction bin is located above the collection bin, the compaction bin being disposed below the trash receptacle to receive trash therefrom and having a closeable ejection opening at a bottom end through which compacted trash is ejected into the collection bin; and an ejection mechanism including a swing arm coupled with the compaction bin and a bottom lid, the swing arm operative to periodically or aperiodically swing the bottom lid horizontally away from the bottom end of the compaction bin to eject the compacted trash through the resulting ejection opening at the bottom end of the compaction bin, characterised in that: the bottom lid has a central recessed portion; and the actuator has a curved lower surface that presses down onto the trash such that the trash is directed more toward the center of the compaction bin than the sides of the compaction bin. a vertically aligned and oriented compactor mechanism, trash receptacle, compaction bin, and collection bin where the compactor mechanism is located above the trash receptacle and includes an actuator operatively coupled with the compaction bin to compact trash in the compaction bin, the trash receptacle is located above the compaction bin, and the compaction bin is located above the collection bin, the compaction bin being disposed below the trash receptacle to receive trash therefrom and having a closeable ejection opening at a bottom end through which compacted trash is ejected into the collection bin; and an ejection mechanism including a swing arm coupled with the compaction bin and a bottom lid, the swing arm operative to periodically or aperiodically swing the bottom lid horizontally away from the bottom end of the compaction bin to eject the compacted trash through the resulting ejection opening at the bottom end of the compaction bin, characterised in that: the bottom lid has a central recessed portion; and the actuator has a curved lower surface that presses down onto the trash such that the trash is directed more toward the center of the compaction bin than the sides of the compaction bin. the bottom lid has a central recessed portion; and the actuator has a curved lower surface that presses down onto the trash such that the trash is directed more toward the center of the compaction bin than the sides of the compaction bin.
Turbine for a pump for a fluid such as blood comprising: - a body (2, 8, 81, 82) configured to perform rotational movements, - a hollow central part (8a, 81a, 82a) passing through the body from one end to the other and intended for the passage of the fluid through the turbine, - at least one vane (4, 5, 6, 7) arranged on the inner wall of the body, in the hollow central part, and configured to cause the fluid to circulate, and - a rod arranged in the central axis of the turbine so as to reduce the backflow of fluid, this rod being fastened at one end to an inlet chamber, the rod being fixed and the turbine being able to pivot about it, characterized in that the inlet chamber comprises side passages allowing the fluid to enter towards the inside of the turbine along the rod. - a body (2, 8, 81, 82) configured to perform rotational movements, - a hollow central part (8a, 81a, 82a) passing through the body from one end to the other and intended for the passage of the fluid through the turbine, - at least one vane (4, 5, 6, 7) arranged on the inner wall of the body, in the hollow central part, and configured to cause the fluid to circulate, and - a rod arranged in the central axis of the turbine so as to reduce the backflow of fluid, this rod being fastened at one end to an inlet chamber, the rod being fixed and the turbine being able to pivot about it, characterized in that the inlet chamber comprises side passages allowing the fluid to enter towards the inside of the turbine along the rod.
Logistics system for transferring a platform to a vehicle, in particular a lorry and/or for taking a platform from the vehicle, with a platform, which substantially has dimensions that are adapted to the loading area of the vehicle, a transfer station for taking the platform from a warehouse or to transfer it thereto, wherein the transfer station has a receiver, on which the platform comes to rest, wherein the platform can be conveyed between the vehicle and the receiver and/or between the warehouse and the receiver, and can be moved in a horizontal direction between a plurality of docking stations (9a, 9b) located parallel to one another and is set up to receive or transfer the platform there in each case, and means for pivoting the transfer station, in each case, in the region of the docking stations (9a, 9b) about a vertical axis, characterised in that the means for pivoting the transfer station have a first drive to move the transfer station and a second drive to move the transfer station, wherein the drives (11, 13) can selectively be controlled synchronously or asynchronously.
A process for performing iteratively the phase retrieval of an adaptive signal x(t) matching two sets of constraint both concerning a desired time envelope u e (t) of signal x(t) =u e (t)e jφ(t) and magnitude distribution Um(f) of its spectral representation U m (f)e jθ(f) that are given for particular intervals of time t∈(0,T) and frequency f∈(-Ω/2,Ω/2), said process being performed for adaptive synthesis of transmit waveforms in radar, and said process computing at each iteration k an estimate x̃ k ( t) of signal x(t), said estimate x̃ k ( t) being obtained from a first projection P A on a first set of constraint in time domain of a computed value x k (t) of x(t) which derives from an estimate X̃ k -1 ( f) of the spectrum of signal x(t), said estimate X̃ k -1 ( f) being itself obtained from a second projection P B on a second set of constraints in spectral domain of the Fourier transform X k ( f) of the estimate x̃ k -1 ( t) of x(t) computed at iteration k-1; estimate x̃ k ( t) being a weighted sum of projection P A of x k (t) onto a first constraint domain and of x k (t) itself; and estimate X̃ k -1 ( f) being a weighted sum of projection P B of X k ( f) onto a second constraint domain and of X k ( f) itself; iterative computation of estimate x̃ k ( t) is repeated until x̃ k ( t) meets a predefined criterion, wherein estimates x̃ k ( t) and X̃ k -1 ( f) are respectively defined by the following relations: x ̃ k t = σ P A x k t + 1 − σ x k t, and X ̃ k f = μ P B X k f + 1 − μ X k f, where σ and μ are relaxation parameter which values are less than 1 and where P A and P B are respectively defined by the following relations: P A x k t = { A e j φ k t t ε T x k t e j φ k t o. w. where A is the expected constant magnitude of x(t), and P B X k f = { U m f e j θ k f f ε Ω X k f e j θ k f o. w. where U m (f) is the expected Fourier Transform Magnitude U m (f) of signal x(t), and wherein, at the first iteration the computed value x 1 (t) of x(t) is computed from an estimate X̃ 0 ( f) of the spectrum of x(t) defined by the following relation: X ̃ 0 f = U m f e j θ 0 f where U m (f) is the expected Fourier Transform Magnitude U m (f) of signal x(t) and where θ 0 is a particular initial phase defined by the following relation: θ 0 f = − 2 ⁢ π A 2 ∫ − Ω 2 Ω 2 ∫ − Ω 2 f U m 2 η d ⁢ η df + c where Ω is the spectral domain of the second constraints set.
A ranging and proximity detection system comprising: a radiation source, the radiation source positioned within a first wellbore; and a radiation detector positioned within a second wellbore wherein the radiation source is positioned within a radiation source assembly and the radiation detector is positioned within a radiation detector assembly, wherein the radiation source, the radiation detector, or both, are shielded; and wherein the radiation source is a gamma radiation source, a neutron source, or a combination thereof. a radiation source, the radiation source positioned within a first wellbore; and a radiation detector positioned within a second wellbore wherein the radiation source is positioned within a radiation source assembly and the radiation detector is positioned within a radiation detector assembly, wherein the radiation source, the radiation detector, or both, are shielded; and wherein the radiation source is a gamma radiation source, a neutron source, or a combination thereof.
An integrated unit comprising a boiler unit, and gas cleaning apparatus having gas cleaning means, the integrated unit having a reaction unit, comprising a fluid bed boiler, gasifier or pyrolytic chamber and wherein fuel is burned completely, burned under pyrolytic conditions or is gasified and further comprising a radiant zone connected to the reaction unit, the radiant zone being connected to a convection zone, the integrated unit further comprising a heat exchange means encircling at least one of the radiant zone and the convection zone, and comprising an annular heat exchange chamber (14; 134), characterized in that the gas cleaning means is provided in an annular gas cleaning chamber (16; 106) encircling the heat exchange chamber and in that the gas cleaning means comprises an array of bag filters in the gas cleaning chamber (16; 106), wherein the bag filter comprises at least one of fabric, ceramic and metal material.
A knife comprising: a cutting blade with at least one cutting edge (226, 228); and a protective overhang (238, 246) located opposite the cutting blade having a convex edge shaped to bulge inward toward the cutting edge (226, 228) for directing a line into the cutting blade; wherein the overhang (238, 246) is a portion of an arm that overhangs a blade, and is disposed over an end of the cutting edge (226, 228) of the blade; an opening (240, 248) is disposed along a side of a casing of the knife; the opening (240, 248) is adapted to receive the line to be run and cut along the cutting edge (240, 248) of the blade by the knife; the opening (240, 248) is in the middle of the knife; the knife is configured such that, when pulling the knife against a line, the movement of the knife causes the line to slide within the slot (218, 224) in a direction parallel to the blade and in a direction such that the line's position relative to the knife becomes closer to the point where the arm meets the body of the knife; the cutting edge being a first cutting edge, the knife further comprising a second cutting edge on the cutting blade, the second cutting edge being on an edge of the cutting blade that is opposite the first cutting edge. a cutting blade with at least one cutting edge (226, 228); and a protective overhang (238, 246) located opposite the cutting blade having a convex edge shaped to bulge inward toward the cutting edge (226, 228) for directing a line into the cutting blade; wherein the overhang (238, 246) is a portion of an arm that overhangs a blade, and is disposed over an end of the cutting edge (226, 228) of the blade; an opening (240, 248) is disposed along a side of a casing of the knife; the opening (240, 248) is adapted to receive the line to be run and cut along the cutting edge (240, 248) of the blade by the knife; the opening (240, 248) is in the middle of the knife; the knife is configured such that, when pulling the knife against a line, the movement of the knife causes the line to slide within the slot (218, 224) in a direction parallel to the blade and in a direction such that the line's position relative to the knife becomes closer to the point where the arm meets the body of the knife; the cutting edge being a first cutting edge, the knife further comprising a second cutting edge on the cutting blade, the second cutting edge being on an edge of the cutting blade that is opposite the first cutting edge.
An adapter for providing fluid communication with a distribution manifold at a tissue site, the adapter comprising: a base defining a mounting plane, the mounting plane having a first planar side and a second planar side opposite the first planar side, the base including a mounting surface coplanar with the first planar side and facing the first planar side; a conduit housing supported by the base and including a recessed region defining an entry surface, the conduit housing and the recessed region positioned on the first planar side with the entry surface facing the first planar side; a primary port on the entry surface; at least one ancillary port on the entry surface; characterized by at least one port extension including a proximal end, a distal end, and a bore between the proximal end and the distal end, the distal end of the port extension positioned on the second planar side in fluid communication with the ancillary port through the bore. a base defining a mounting plane, the mounting plane having a first planar side and a second planar side opposite the first planar side, the base including a mounting surface coplanar with the first planar side and facing the first planar side; a conduit housing supported by the base and including a recessed region defining an entry surface, the conduit housing and the recessed region positioned on the first planar side with the entry surface facing the first planar side; a primary port on the entry surface; at least one ancillary port on the entry surface; characterized by at least one port extension including a proximal end, a distal end, and a bore between the proximal end and the distal end, the distal end of the port extension positioned on the second planar side in fluid communication with the ancillary port through the bore.
A fitting for providing at least a first fluid and a second fluid, having at least one outlet with at least one main flow path for a first fluid and at least one additional flow path separate therefrom for a second fluid, wherein the additional flow path is formed at least partially in a hose arranged inside the outlet, wherein the main flow path is formed at least partially in an intermediate space between the house and the outlet, wherein the outlet has an L-shape, wherein the second fluid can flow out of an outlet opening out of the outlet at a right angle to the outlet and wherein the hose is attached to an elbow at the outlet opening, characterized in that at the outlet opening, the outlet has an inclined plane which is designed to guide the elbow, during the installation of the same, into an intended assembly position.
An article of footwear having an upper and a sole structure secured to the upper, the upper being at least partially formed of a knitted component, the knitted component comprising: an outer surface and an opposite-facing inner surface; the knitted component extending through at least a portion of each of a forefoot region, midfoot area, and a heel area of the article of footwear, wherein the upper comprises a knitted body being formed at least in part from a first yam having a tenacity of at least 44.135 cN per tex or greater, and wherein the upper comprises a first collar opening, and wherein the knitted component further comprises a heel element located in the heel area extending from a lateral side to a medial side of the upper, the article of footwear being characterized in that an outer surface of the heel element is adjacent to the inner surface of the upper, and wherein the heel element comprises a second collar opening that extends above the first collar opening. an outer surface and an opposite-facing inner surface; the knitted component extending through at least a portion of each of a forefoot region, midfoot area, and a heel area of the article of footwear, wherein the upper comprises a knitted body being formed at least in part from a first yam having a tenacity of at least 44.135 cN per tex or greater, and wherein the upper comprises a first collar opening, and wherein the knitted component further comprises a heel element located in the heel area extending from a lateral side to a medial side of the upper, the article of footwear being characterized in that an outer surface of the heel element is adjacent to the inner surface of the upper, and wherein the heel element comprises a second collar opening that extends above the first collar opening.
An air outlet in the form of a hollow body, which has a jacket surface and front faces located opposite one another, wherein the jacket surface is provided with air outlet openings and one of the front faces has an air inlet, with the air outlet openings in an upper region of the hollow body serving as mixed air outlet openings and as source air outlet openings in a lower region of the hollow body at full load, and the full load is defined by the size of a volumetric flow rate of the air supplied to the air inlet, characterised by a control device, which is arranged in the interior of the hollow body and which, even in the case of partial load, keeps the pressure of the air prevailing in the interior of this or of an upper region so large that mixed air still escapes from at least a portion of the air outlet openings.
A household appliance (1; 14; 17) comprising a heat pump, the heat pump comprising a compressor, a condenser, an expansion device, and an evaporator connected in series by a refrigerant circuit, wherein the household appliance further comprises - at least one refrigerant redirection device (8, 9; 15, 16; 18-21) to reverse a flow direction of a refrigerant through the condenser and/or through the evaporator characterized in that the household appliance (1; 14; 17) comprises only a refrigerant redirection device for the condenser, only a refrigerant redirection device for the evaporator, or both, reversing the use of ports of the condenser and/or evaporator inlet and outlet ports, such that the flow direction of the refrigerant through the condenser and/or the evaporator, respectively, is reversed but the flow direction of the refrigerant in the heat pump is not reversed. - at least one refrigerant redirection device (8, 9; 15, 16; 18-21) to reverse a flow direction of a refrigerant through the condenser and/or through the evaporator
An in-vitro method for early diagnosing or prediction of immune-mediated inflammatory diseases, comprising: - quantifying simultaneously by one LC/MS-MS analysis, a presence of V65 vitronectin fragment; and a presence of a complement C3f in a biological sample that has been obtained from a subject; said method comprising the following steps: - mixing the biological sample with an acidic aqueous solution; - loading the resulting mixture on a trapping LC column; - optionally washing the column to remove uncertain component; - eluting the column with an alcoholic mixture and obtaining an eluate; - drying the eluate; - dispersing the dried eluate in an acetonitrile aqueous solution; - loading the resulting dispersion on a reversed phase LC column and separating two mobile phase A and B; - injecting by continuous flux in MS-MS, both phases A and B and quantifying V65 vitronectin fragment simultaneously to quantify complement C3f or fragment, variant or degradation product thereof; and characterised in that the acetonitrile aqueous solution comprises trifluoro acetic acid. - quantifying simultaneously by one LC/MS-MS analysis, a presence of V65 vitronectin fragment; and a presence of a complement C3f in a biological sample that has been obtained from a subject; - mixing the biological sample with an acidic aqueous solution; - loading the resulting mixture on a trapping LC column; - optionally washing the column to remove uncertain component; - eluting the column with an alcoholic mixture and obtaining an eluate; - drying the eluate; - dispersing the dried eluate in an acetonitrile aqueous solution; - loading the resulting dispersion on a reversed phase LC column and separating two mobile phase A and B; - injecting by continuous flux in MS-MS, both phases A and B and quantifying V65 vitronectin fragment simultaneously to quantify complement C3f or fragment, variant or degradation product thereof;
A composition for a non-aqueous secondary battery component functional layer, wherein the secondary battery component is at least one of an electrode or a separator, the composition comprising organic particles, a binder, a wetting agent, and water, wherein content of the wetting agent is more than 1 part by mass and not more than 5 parts by mass per 100 parts by mass of the organic particles, the wetting agent includes a non-ionic surfactant and also includes a sulfosuccinic acid ester or salt thereof, and a mass ratio of content of the sulfosuccinic acid ester or salt thereof relative to content of the non-ionic surfactant is not less than 0.50 and not more than 1.30. content of the wetting agent is more than 1 part by mass and not more than 5 parts by mass per 100 parts by mass of the organic particles, the wetting agent includes a non-ionic surfactant and also includes a sulfosuccinic acid ester or salt thereof, and a mass ratio of content of the sulfosuccinic acid ester or salt thereof relative to content of the non-ionic surfactant is not less than 0.50 and not more than 1.30.