mhurhangee/ep-ind-claims huggingface dataset:
A bivouac shelter for residing outdoors or in non-heated accommodation, said bivouac shelter comprising a basis unit with a ground part and a roof part with lateral wall sections, which are connected to the ground part, wherein the basis unit forms a tunnel-shaped or tubular body receiving space with a foot region at least for receiving legs or parts thereof of a lying person, as well as with at least one access opening for at least a person, characterised in that the basis unit is designed in a self-supporting manner in the operating position and forms a shape-retaining body receiving space, wherein the basis unit comprises an at least partly multi-walled construction with at least one air-filled hollow chamber lying therebetween, and the basis unit obtains its intrinsic stability due to the multi-walled construction or due to the roof part with reinforcement structures that are separate or integrated into the roof part, and the basis unit comprises a connection opening, said connection opening lying opposite the foot region, which corresponds to an end-side opening of the tunnel-shaped or tubular body receiving space, and a closure unit being attached onto the connection opening in a releasable or fixed manner, and the closure unit comprises a flexible, extensive sealing element, wherein the sealing element at least partly spans the connection opening, wherein the closure unit is designed for closing off the body receiving space in a thermally insulating and watertight manner, wherein a head can be placed outside the body receiving space closed off by the closure unit.
A humidifier, comprising: a main body having an air intake unit and an air blower unit formed therein; a ventilator for sucking air through the air intake unit and blowing the air through the air blower unit; a water tank having an entrance/exit portion formed therein, wherein water enters or exits from the entrance/exit portion; a water guide, comprising a water tank settlement unit in which the water tank is seated and an accommodation unit for accommodating water output from the water tank, wherein the accommodation unit is placed so that the accommodation unit is positioned on a lower front side of the ventilator; and a humidification filter seated in the accommodation unit so that the humidification filter is positioned between the air intake unit and the ventilator, wherein a purification filter for purifying the air sucked into the air intake unit is placed in front of the humidification filter, characterized in that the accommodation unit is depressed backward so that the purification filter is placed in the depressed portion of the accommodation unit. a main body having an air intake unit and an air blower unit formed therein; a ventilator for sucking air through the air intake unit and blowing the air through the air blower unit; a water tank having an entrance/exit portion formed therein, wherein water enters or exits from the entrance/exit portion; a water guide, comprising a water tank settlement unit in which the water tank is seated and an accommodation unit for accommodating water output from the water tank, wherein the accommodation unit is placed so that the accommodation unit is positioned on a lower front side of the ventilator; and a humidification filter seated in the accommodation unit so that the humidification filter is positioned between the air intake unit and the ventilator, wherein a purification filter for purifying the air sucked into the air intake unit is placed in front of the humidification filter, characterized in that the accommodation unit is depressed backward so that the purification filter is placed in the depressed portion of the accommodation unit.
Cage for a ball bearing unit, the cage comprising: - a plurality of pockets each delimited by a respective spherical surface having a centre lying in a radial mid-plane of the bearing, - two half-cages (51, 52) substantially symmetrical about the mid-plane, and connected to one another, each half-cage having an annular body and a plurality of partially hemispherical cavities (64, 66, 68) axially facing the hemispherical cavities of the opposite half-cage so as to define therewith the pockets; - connecting means (69, 70) associated with each cage for connecting together the two half-cages; the cage comprising, for each half-cage (51, 52), two substantially concentric and circumferentially continuous radial ridges (56, 57) extending radially in opposite directions from each annular body, of which the first ridge extends in a radially outward direction for sealingly engaging a groove formed in the outer ring of the bearing unit, and the second ridge extends in a radially inward direction for sealingly engaging a groove formed in the inner ring of the bearing unit, wherein a plurality of axial projections (65, 67) constituting the partially hemispheric cavities extend from the annular body of each half-cage (51, 52) towards the mid-plane, and wherein at least some of the circumferentially consecutive projections (65, 67) are joined by a portion having an axial extension shorter than the axial projections it joins together, whereby the shorter portions define a plurality of radial passages with the opposite half-cage; characterized in that the shorter portions have surfaces inclined at an oblique angle and flared in pairs so as to diverge in axially outward directions. - a plurality of pockets each delimited by a respective spherical surface having a centre lying in a radial mid-plane of the bearing, - two half-cages (51, 52) substantially symmetrical about the mid-plane, and connected to one another, each half-cage having an annular body and a plurality of partially hemispherical cavities (64, 66, 68) axially facing the hemispherical cavities of the opposite half-cage so as to define therewith the pockets; - connecting means (69, 70) associated with each cage for connecting together the two half-cages;
A fragment of a full-length CD31 protein, said fragment comprising at least a part of the 6 th extracellular immunoglobulin-like domain of said full-length CD31 protein, wherein said fragment does not comprise the juxtamembrane, transmembrane and intracellular domains of said full-length protein, wherein said fragment is at least 30 amino acids in length and wherein said fragment comprises an epitope within the 6 th extracellular immunoglobulin-like domain specifically bound by antibody MBC78.2.
Resonator (21, 21') for a timepiece including a staff (11, 11') onto which are fitted a balance (13, 13') and a balance spring including a strip wound around itself into several coils (P I, P E), the inner coil (P I) being integral with a collet (5, 25, 45, 65) including a band (7, 27, 47, 67) extending substantially in the form of a polygon, the band (7, 27, 47, 67) includes, at each vertex of said polygon, a bulging portion (2, 4, 8, 22, 24, 26, 28, 42, 44, 48, 62, 64, 68) extending radially towards the inner coil (P I) and characterised in that the resonator further includes a resilient washer (10, 10') which mainly clamps the balance spring by exerting an axial load by squeezing at the vertices of the band (7, 27, 47, 67) of said polygon while allowing the bulging portions (2, 4, 8, 42, 44, 48, 62, 64, 68) to protrude from the flank of the washer (10, 10').
A surfboard rack, invisible from a front view when accommodating said at least one surfboard, for mounting, storing and displaying at least one surfboard; said at least one surfboard comprising a first end and a second end; said first end having at least one fin supportable and braceable by said surfboard rack; said surfboard rack comprising: a) a main body comprising at least two arms and a brace plate attachable onto a surface; and, b) support sleeves attachable onto said at least two arms; said adjustable support sleeves are adapted to accommodate said at least one fin on said first end of said surfboard while said second end is leaning against said surface, characterized in that: c) said at least two sliding sleeves, comprises barriers at each of their end; said barriers are adapted to secure said surfboard into place and prevent it from tipping or falling over; d) said at least two sliding sleeves comprise cushion rings adapted to prevent damage to said surfboard/fins, and further wherein said at least two arms comprises at least one indentation along their sides and said at least two sliding sleeves comprise an elongated protrusion along their side, said at least one indentation is adapted to fixate said at least two sliding sleeves to said arms by accommodating said protrusion. a) a main body comprising at least two arms and a brace plate attachable onto a surface; and, b) support sleeves attachable onto said at least two arms; said adjustable support sleeves are adapted to accommodate said at least one fin on said first end of said surfboard while said second end is leaning against said surface, c) said at least two sliding sleeves, comprises barriers at each of their end; said barriers are adapted to secure said surfboard into place and prevent it from tipping or falling over; d) said at least two sliding sleeves comprise cushion rings adapted to prevent damage to said surfboard/fins,
Non-alkali aluminum silicate glass, wherein a glass melt of the non-alkali aluminum silicate glass at 1600°C has a resistivity of 200 Ω·cm or less; a temperature T 35000 corresponding to 35000 P viscosity is 1250°C or more; and an annealing point corresponding to 10 13 P viscosity is 790°C or more, wherein based on a total molar weight of the non-alkali aluminum silicate glass, the non-alkali aluminum silicate glass comprises, by oxide, 70-72 mol% of SiO 2, 12-14 mol% of Al 2 O 3, 0-1 mol% of B 2 O 3, 3-5 mol% of MgO, 2.9-6 mol% of CaO, 0.1-1 mol% of SrO, 4-7 mol% of BaO, 0.3-1.5 mol% of ZnO, 0.1-0.5 mol% of RE 2 O 3, 0.02-0.3 mol% of Se 2 O 3 and R 2 O less than 0.05 mol%, wherein RE represents rare earth elements, and R represents alkali metals; wherein by molar percentage, the contents of the components in the non-alkali aluminum silicate glass meet a value T in a range between 4 and 5 inclusive, wherein T is calculated according to the following formula: T=-10.31+(16.04×SiO 2 +6×Al 2 O 3 +3.29×B 2 O 3 -5.47×MgO-5.43×CaO+3.77×SrO+26.65×BaO-7.8 2×ZnO+214.8×RE 2 O 3 +86.3×Se 2 O 3 +162.5×F), wherein SiO 2, Al 2 O 3, B 2 O 3, MgO, CaO, SrO, BaO, ZnO, RE 2 O 3, Se 2 O 3 and F represent molar percentages of the components in the non-alkali aluminum silicate glass, respectively. a temperature T 35000 corresponding to 35000 P viscosity is 1250°C or more; and an annealing point corresponding to 10 13 P viscosity is 790°C or more, wherein based on a total molar weight of the non-alkali aluminum silicate glass, the non-alkali aluminum silicate glass comprises, by oxide, 70-72 mol% of SiO 2, 12-14 mol% of Al 2 O 3, 0-1 mol% of B 2 O 3, 3-5 mol% of MgO, 2.9-6 mol% of CaO, 0.1-1 mol% of SrO, 4-7 mol% of BaO, 0.3-1.5 mol% of ZnO, 0.1-0.5 mol% of RE 2 O 3, 0.02-0.3 mol% of Se 2 O 3 and R 2 O less than 0.05 mol%, wherein RE represents rare earth elements, and R represents alkali metals; wherein by molar percentage, the contents of the components in the non-alkali aluminum silicate glass meet a value T in a range between 4 and 5 inclusive, wherein T is calculated according to the following formula: T=-10.31+(16.04×SiO 2 +6×Al 2 O 3 +3.29×B 2 O 3 -5.47×MgO-5.43×CaO+3.77×SrO+26.65×BaO-7.8 2×ZnO+214.8×RE 2 O 3 +86.3×Se 2 O 3 +162.5×F), wherein SiO 2, Al 2 O 3, B 2 O 3, MgO, CaO, SrO, BaO, ZnO, RE 2 O 3, Se 2 O 3 and F represent molar percentages of the components in the non-alkali aluminum silicate glass, respectively.
A machine spindle arrangement comprising a workholding apparatus in form of a chuck or an arbor and a machine spindle rotatable about an axis of rotation, said spindle comprising a spindle body having an outer end with said outer end having an opening and an end surface surrounding said opening to provide, within said spindle body, for a seated position for the workholding apparatus, said spindle being characterizec by further comprising: a plurality of rod-shaped ejecting elements located in said outer end at said end surface with each of said rod-shaped ejecting elements being extendable from said end surface and retractable into said end surface, said rod-shaped ejecting elements being operable to extend from said end surface and into contact with a surface of the workholding apparatus located in said seated position, said contact being of a force sufficient to urge said workholding apparatus from said seated position. a plurality of rod-shaped ejecting elements located in said outer end at said end surface with each of said rod-shaped ejecting elements being extendable from said end surface and retractable into said end surface, said rod-shaped ejecting elements being operable to extend from said end surface and into contact with a surface of the workholding apparatus located in said seated position, said contact being of a force sufficient to urge said workholding apparatus from said seated position.
Vehicle comprising a master cylinder and an electric battery having a positive terminal, characterized in that the master cylinder has an outer surface covered, on an external surface facing the positive terminal, with at least one protective layer comprising a sublayer of an insulating compressible material and a sublayer of a perforation-resistant material.
A microflow assembly comprising: a microflow assembly housing comprising an interior surface; a mandrel having an exterior surface, the mandrel positioned within the microflow assembly housing so that at least a portion of the exterior surface of the mandrel is substantially parallel to at least a portion of the interior surface of the microflow assembly housing; and at least one protrusion extending from either the interior surface of the microflow assembly housing or the exterior surface of the mandrel, the at least one protrusion abutting either the exterior surface of the mandrel or the interior surface of the microflow assembly housing to form an impermeably sealed fluid channel configured to reduce sagging within the microflow assembly, the impermeably sealed fluid channel having a channel inlet and a channel outlet, characterized in that the microflow assembly housing and the mandrel are assembled together when the at least one protrusion is in a partially-hardened state to fill in undesirable microgaps. a microflow assembly housing comprising an interior surface; a mandrel having an exterior surface, the mandrel positioned within the microflow assembly housing so that at least a portion of the exterior surface of the mandrel is substantially parallel to at least a portion of the interior surface of the microflow assembly housing; and at least one protrusion extending from either the interior surface of the microflow assembly housing or the exterior surface of the mandrel, the at least one protrusion abutting either the exterior surface of the mandrel or the interior surface of the microflow assembly housing to form an impermeably sealed fluid channel configured to reduce sagging within the microflow assembly, the impermeably sealed fluid channel having a channel inlet and a channel outlet, characterized in that the microflow assembly housing and the mandrel are assembled together when the at least one protrusion is in a partially-hardened state to fill in undesirable microgaps.
A method for detecting an electrical arc fault in a transport refrigeration unit, the method comprising: monitoring a parameter of a power source powering the transport refrigeration unit; characterized by: determining a magnitude of a high frequency component of the parameter of the power source; comparing the high frequency component of the parameter of the power source to a threshold; and determining that the electrical arc fault is present when the high frequency component of the parameter of the power source exceeds the threshold. determining a magnitude of a high frequency component of the parameter of the power source; comparing the high frequency component of the parameter of the power source to a threshold; and determining that the electrical arc fault is present when the high frequency component of the parameter of the power source exceeds the threshold.
A ground drill system comprising: a drill string arranged to form a flushing fluid flow path and a working fluid flow path that are fluidically isolated from each other, the drill string having an up hole end and an opposite down hole end; a down the hole hammer coupled to the down hole end of the drill string and in fluid communication with the working fluid flow path wherein the down the hole hammer is operated by a working fluid flowing through the working fluid flow path, wherein the working fluid comprises water, oil, air, nitrogen gas, or mixtures thereof; and, a flushing fluid outlet in communication with the flushing fluid flow path, the flushing fluid outlet juxtaposed at a fixed location relative to the down the hole hammer and carried by the drill string wherein the flushing fluid outlet advances with the drill string, characterised in that the flushing fluid outlet is located adjacent to and up hole of the down the hole hammer and capable of directing a flushing fluid flowing through the flushing fluid flow path into a hole being drilled by the ground drilling system. a drill string arranged to form a flushing fluid flow path and a working fluid flow path that are fluidically isolated from each other, the drill string having an up hole end and an opposite down hole end; a down the hole hammer coupled to the down hole end of the drill string and in fluid communication with the working fluid flow path wherein the down the hole hammer is operated by a working fluid flowing through the working fluid flow path, wherein the working fluid comprises water, oil, air, nitrogen gas, or mixtures thereof; and, a flushing fluid outlet in communication with the flushing fluid flow path, the flushing fluid outlet juxtaposed at a fixed location relative to the down the hole hammer and carried by the drill string wherein the flushing fluid outlet advances with the drill string, characterised in that the flushing fluid outlet is located adjacent to and up hole of the down the hole hammer and capable of directing a flushing fluid flowing through the flushing fluid flow path into a hole being drilled by the ground drilling system.
Method for compacting a harvested crop in a silo by means of an agricultural working machine (10, 12, 14), the compaction work of which is controlled in dependence on at least one piece of control information (D, D_pos, PRO_d, S_st), wherein - a density profile (PRO_d), which represents a target density (d_soll) of the harvested crop in dependence on a silo position (p1_sil, p2_sil, p3_sil) along a predetermined silo length of the silo or a silo portion (ΔL1, ΔL2, ΔL3) along a predetermined silo length of the silo, is determined as a piece of control information, and - a travel speed (v_ma) of the working machine (10, 12) is controlled during the compaction work in dependence on the determined density profile (PRO_d), characterized in that the density profile (PRO_d) is determined in dependence on a comparison between an extraction rate (v_akt) and a target rate (v_soll), wherein - the extraction rate (v_akt) is dependent on a feed quantity (R_f) for animals to be fed which is actually required in an extraction time period (Δt_ent) from the silo, and - the target rate (v_soll) is determined as a target feedout rate independently of the feed quantity (R_f) required for the same extraction time period (Δt_ent) from the silo. - a density profile (PRO_d), which represents a target density (d_soll) of the harvested crop in dependence on a silo position (p1_sil, p2_sil, p3_sil) along a predetermined silo length of the silo or a silo portion (ΔL1, ΔL2, ΔL3) along a predetermined silo length of the silo, is determined as a piece of control information, and - a travel speed (v_ma) of the working machine (10, 12) is controlled during the compaction work in dependence on the determined density profile (PRO_d), characterized in that the density profile (PRO_d) is determined in dependence on a comparison between an extraction rate (v_akt) and a target rate (v_soll), wherein - the extraction rate (v_akt) is dependent on a feed quantity (R_f) for animals to be fed which is actually required in an extraction time period (Δt_ent) from the silo, and - the target rate (v_soll) is determined as a target feedout rate independently of the feed quantity (R_f) required for the same extraction time period (Δt_ent) from the silo.
A child safety seat, comprising a seat body and a five-point safety belt disposed on the seat body, the seat body comprising a housing, the five-point safety belt comprising a safety belt buckle, the housing being internally provided with a storage slot used for storing the safety belt buckle; is characterized in that, the seat body further comprises a head support assembly disposed on the housing in a sliding up and down manner, the head support assembly has a predetermined position, and when the safety belt buckle is placed in the storage slot, the head support assembly is allowed to be higher than the predetermined position.
Midsole, comprising randomly arranged particles of an expanded material and further comprising a support element, wherein the support element comprises: a. a first partial member; and b. two second partial members (120; 125); c. wherein the two second partial members (120; 125) are connected rotatably with the first partial member in two connection regions (180; 185) by an injection molding process (1350; 1351; 1450); d. wherein the first partial member comprises a first plastic material and wherein the two second partial members (120; 125) comprise a second plastic material different from the first plastic material; and e. wherein the two plastic materials are chosen such that the two materials do not form a chemical bond in the two connection regions (180; 185) during the injection molding process (1350; 1351; 1450). a. a first partial member; and b. two second partial members (120; 125); c. wherein the two second partial members (120; 125) are connected rotatably with the first partial member in two connection regions (180; 185) by an injection molding process (1350; 1351; 1450); d. wherein the first partial member comprises a first plastic material and wherein the two second partial members (120; 125) comprise a second plastic material different from the first plastic material; and e. wherein the two plastic materials are chosen such that the two materials do not form a chemical bond in the two connection regions (180; 185) during the injection molding process (1350; 1351; 1450).