mhurhangee/patent-ind-claim-en huggingface dataset:
An electrical contact receptacle comprising: a base having a front surface and opposite side edge regions , opposed contact portions extending forwardly of said front surface from respective ones of said opposite side edge regions and being angled inwardly toward one another, wherein each of said contact portions has a respective inner contact surface for conductively engaging a respective opposite planar face of a blade terminal or a bus bar ; and wherein said front surface of said base is sized and shaped to conductively engage a side edge of the blade terminal or bus bar in a first orientation in which the longitudinal axis of the blade terminal or bus bar is parallel to said base simultaneously with said contact portions conductively engaging the respective opposite planar surfaces of the blade terminal or bus bar characterised in that said base comprises inwardly-facing surfaces (33a-d) defining a through-opening between said opposite side edge regions ; wherein said through-opening is sized and shaped to receive the blade terminal or bus bar in a second orientation in which a longitudinal axis of the blade terminal or bus bar is perpendicular to said base with at least one of said inwardly facing surfaces conductively engaging the respective opposite planar faces of the blade terminal or bus bar a base having a front surface and opposite side edge regions , opposed contact portions extending forwardly of said front surface from respective ones of said opposite side edge regions and being angled inwardly toward one another, wherein each of said contact portions has a respective inner contact surface for conductively engaging a respective opposite planar face of a blade terminal or a bus bar ; and wherein said front surface of said base is sized and shaped to conductively engage a side edge of the blade terminal or bus bar in a first orientation in which the longitudinal axis of the blade terminal or bus bar is parallel to said base simultaneously with said contact portions conductively engaging the respective opposite planar surfaces of the blade terminal or bus bar characterised in that said base comprises inwardly-facing surfaces (33a-d) defining a through-opening between said opposite side edge regions ; wherein said through-opening is sized and shaped to receive the blade terminal or bus bar in a second orientation in which a longitudinal axis of the blade terminal or bus bar is perpendicular to said base with at least one of said inwardly facing surfaces conductively engaging the respective opposite planar faces of the blade terminal or bus bar
A hydrokinetic generator including: a submersible housing defining a conduit therethrough for the flow of a fluid; a turbine mounted to the housing comprising at least one impeller for a hydrokinetic turbine comprising a plurality of spiral, helical blades disposed about a common axle from a leading end thereof to a trailing end wherein the blades' radii increases from the leading end to the trailing end, located in the conduit for rotation by said flow; an impeller ring is disposed about outermost tips of the impeller and fastened thereto wherein the impeller ring and the impeller are coaxial; at least one electrical generator coupled to the turbine for converting mechanical energy from the turbine to electrical energy; a plurality of magnetic regions disposed about the at least one impeller and fast therewith, wherein the magnetic regions are disposed around a periphery of the impeller ring parallel to the axle of the impeller ; and a number of windings arranged for electromagnetic interaction with said magnetic regions whereby in use rotation of the impeller moves the magnetic regions past the windings to thereby induce an electrical current in the windings , wherein each winding has a core , wherein a wall defining the conduit is formed with an annular recess for receiving the periphery of the impeller ring , and wherein the windings are located within the wall adjacent the annular recess and the core of each winding extends parallel to the axle of the impeller . a submersible housing defining a conduit therethrough for the flow of a fluid; a turbine mounted to the housing comprising at least one impeller for a hydrokinetic turbine comprising a plurality of spiral, helical blades disposed about a common axle from a leading end thereof to a trailing end wherein the blades' radii increases from the leading end to the trailing end, located in the conduit for rotation by said flow; an impeller ring is disposed about outermost tips of the impeller and fastened thereto wherein the impeller ring and the impeller are coaxial; at least one electrical generator coupled to the turbine for converting mechanical energy from the turbine to electrical energy; a plurality of magnetic regions disposed about the at least one impeller and fast therewith, wherein the magnetic regions are disposed around a periphery of the impeller ring parallel to the axle of the impeller ; and a number of windings arranged for electromagnetic interaction with said magnetic regions whereby in use rotation of the impeller moves the magnetic regions past the windings to thereby induce an electrical current in the windings , wherein each winding has a core , wherein a wall defining the conduit is formed with an annular recess for receiving the periphery of the impeller ring , and wherein the windings are located within the wall adjacent the annular recess and the core of each winding extends parallel to the axle of the impeller .
Torch , comprising - a torch head , which comprises a lighting unit , - a housing , which is designed as a handle piece, extends along a longitudinal axis L and comprises a closed end portion to the rear, and - a push switch, which in order to operate the torch comprises a slider , wherein the slider is captively mounted on the housing so as to be slidable, characterised in that the slider is L-shaped in design, with a first portion and a second portion , the first portion extending longitudinally-axially along the housing and the second portion engaging behind the closed end portion of the housing , so that the push switch can be operated in different grip positions. - a torch head , which comprises a lighting unit , - a housing , which is designed as a handle piece, extends along a longitudinal axis L and comprises a closed end portion to the rear, and - a push switch, which in order to operate the torch comprises a slider , wherein the slider is captively mounted on the housing so as to be slidable,
A detection and avoidance system by a vehicle , comprising: an imaging unit configured to obtain a first image of a field of view at a first camera channel , the first camera channel filtering radiation at an ultra-violet wavelength range by use of a filter, wherein one or more objects in the field of view do not emit radiation at the ultra-violet wavelength range, wherein the one or more objects comprise a cloud object and an airborne object ; a processing unit configured to receive the first image from the imaging unit and to detect one or more objects therein; and a notifying unit configured to communicate collision hazard information determined based upon the detected one or more objects to a pilot control system of the vehicle; wherein the processing unit is configured to detect the one or more objects by use of connected component labeling, CCL in which the airborne object and the cloud object are identified as connected components. an imaging unit configured to obtain a first image of a field of view at a first camera channel , the first camera channel filtering radiation at an ultra-violet wavelength range by use of a filter, wherein one or more objects in the field of view do not emit radiation at the ultra-violet wavelength range, wherein the one or more objects comprise a cloud object and an airborne object ; a processing unit configured to receive the first image from the imaging unit and to detect one or more objects therein; and a notifying unit configured to communicate collision hazard information determined based upon the detected one or more objects to a pilot control system of the vehicle; wherein the processing unit is configured to detect the one or more objects by use of connected component labeling, CCL in which the airborne object and the cloud object are identified as connected components.
A composition, comprising at least one immunogen or at least one nucleic acid molecule encoding an immunogen, wherein each at least one immunogen comprises a region A coupled to a region B; wherein region A comprises (i) three copies of amino acid residues 1 to 11 of amyloid-B; (ii) the three copies of (i) and three copies of amino acid residues 2 to 18 of tau; or (iii) the two sets of three copies of (ii) and three copies of amino acid residues 36 to 69 of α-synuclein; and wherein region B comprises PADRE consisting of AKFVAAWTLKAAA (SEQ ID NO:36); P23 consisting of VSIDKFRIFCKANPK (SEQ ID NO: 25); P32 consisting of LKFIIKRYTPNNEIDS (SEQ ID NO: 26); P21 consisting of IREDNNITLKLDRCNN (SEQ ID NO: 27); P30 consisting of FNNFTVSFWLRVPKVSASHLE (SEQ ID NO: 28); P2 consisting of QYIKANSKFIGITE (SEQ ID NO: 29); HBVnc consisting of PHHTALRQAILCWGELMTLA (SEQ ID NO: 33); HbsAg consisting of FFLLTRILTIPQSLD (SEQ ID NO: 34); MT consisting of YSGPLKAEIAQRLEDV (SEQ ID NO: 35); P7 consisting of NYSLDKIIVDYNLQSKITLP (SEQ ID NO: 32); P17 consisting of LINSTKIYSYFPSVISKVNQ (SEQ ID NO: 31); and P28 consisting of LEYIPEITLPVIAALSIAES (SEQ ID NO: 30). (i) three copies of amino acid residues 1 to 11 of amyloid-B; (ii) the three copies of (i) and three copies of amino acid residues 2 to 18 of tau; or (iii) the two sets of three copies of (ii) and three copies of amino acid residues 36 to 69 of α-synuclein; and wherein region B comprises PADRE consisting of AKFVAAWTLKAAA (SEQ ID NO:36); P23 consisting of VSIDKFRIFCKANPK (SEQ ID NO: 25); P32 consisting of LKFIIKRYTPNNEIDS (SEQ ID NO: 26); P21 consisting of IREDNNITLKLDRCNN (SEQ ID NO: 27); P30 consisting of FNNFTVSFWLRVPKVSASHLE (SEQ ID NO: 28); P2 consisting of QYIKANSKFIGITE (SEQ ID NO: 29); HBVnc consisting of PHHTALRQAILCWGELMTLA (SEQ ID NO: 33); HbsAg consisting of FFLLTRILTIPQSLD (SEQ ID NO: 34); MT consisting of YSGPLKAEIAQRLEDV (SEQ ID NO: 35); P7 consisting of NYSLDKIIVDYNLQSKITLP (SEQ ID NO: 32); P17 consisting of LINSTKIYSYFPSVISKVNQ (SEQ ID NO: 31); and P28 consisting of LEYIPEITLPVIAALSIAES (SEQ ID NO: 30). PADRE consisting of AKFVAAWTLKAAA (SEQ ID NO:36); P23 consisting of VSIDKFRIFCKANPK (SEQ ID NO: 25); P32 consisting of LKFIIKRYTPNNEIDS (SEQ ID NO: 26); P21 consisting of IREDNNITLKLDRCNN (SEQ ID NO: 27); P30 consisting of FNNFTVSFWLRVPKVSASHLE (SEQ ID NO: 28); P2 consisting of QYIKANSKFIGITE (SEQ ID NO: 29); HBVnc consisting of PHHTALRQAILCWGELMTLA (SEQ ID NO: 33); HbsAg consisting of FFLLTRILTIPQSLD (SEQ ID NO: 34); MT consisting of YSGPLKAEIAQRLEDV (SEQ ID NO: 35); P7 consisting of NYSLDKIIVDYNLQSKITLP (SEQ ID NO: 32); P17 consisting of LINSTKIYSYFPSVISKVNQ (SEQ ID NO: 31); and P28 consisting of LEYIPEITLPVIAALSIAES (SEQ ID NO: 30).
A sheet material, the sheet material comprising a substrate layer having first and second major surfaces, with an adhesive layer on the first major surface, the substrate layer being formed from plural fibres retained in a polymeric matrix, wherein the sheet material has a thickness of less than 0.40 mm and greater than 0.05mm, wherein the plural fibres are substantially coaligned, and wherein the sheet material has a length and the coaligned plural fibres extend in the direction of the length of the sheet material.
A hanger bar for an electrowinning cell, the hanger bar comprising • a bar made from a first material, the bar having a recessed and open region formed at a lower side of each end of the bar, each of the recessed and open regions extending inwardly from an end of the bar; • a contact member comprising a second material, the contact member extending between opposed ends of the bar , wherein respective ends of the contact member are exposed at the recessed and open end regions at either end of the bar , the second material having a higher electrical conductivity than the first material, • the exposed ends of the second material being welded to a peripheral portion of the recessed and open regions of the bar , wherein a welded seal is formed between the bar portion and the contact portions in order to minimize corrosion. • a bar made from a first material, the bar having a recessed and open region formed at a lower side of each end of the bar, each of the recessed and open regions extending inwardly from an end of the bar; • a contact member comprising a second material, the contact member extending between opposed ends of the bar , wherein respective ends of the contact member are exposed at the recessed and open end regions at either end of the bar , the second material having a higher electrical conductivity than the first material, • the exposed ends of the second material being welded to a peripheral portion of the recessed and open regions of the bar , wherein a welded seal is formed between the bar portion and the contact portions in order to minimize corrosion.
A map information display device comprising: an operating tool detector configured to detect, on a display panel where map information (MI) and view image information (VI) are displayed, a position and a pointing direction of an operating tool (M) that is in touch with an area (A1, A1') corresponding to the map information (MI), the area (A1, A1') being an elliptic area with a long axis in a long axis direction (D) and the pointing direction being defined by a direction indicating the upper part of the display panel along the long axis direction (D) of the area (A1, A1'); and a display controller configured to control display of the view image information (VI) on the display panel in accordance with a view point on the map information (MI) indicated by the position of the operating tool (M) detected by the operating tool detector and a line-of-sight direction on the map information indicated by the pointing direction of the operating tool (M) detected by the operating tool detector . an operating tool detector configured to detect, on a display panel where map information (MI) and view image information (VI) are displayed, a position and a pointing direction of an operating tool (M) that is in touch with an area (A1, A1') corresponding to the map information (MI), the area (A1, A1') being an elliptic area with a long axis in a long axis direction (D) and the pointing direction being defined by a direction indicating the upper part of the display panel along the long axis direction (D) of the area (A1, A1'); and a display controller configured to control display of the view image information (VI) on the display panel in accordance with a view point on the map information (MI) indicated by the position of the operating tool (M) detected by the operating tool detector and a line-of-sight direction on the map information indicated by the pointing direction of the operating tool (M) detected by the operating tool detector .
Double swing door with a locking apparatus, each door having a door handle , the door handles consisting of a base body (2.1, 2.1') and a handle body (2.3, 2.3'), it being possible for the base bodies (2.1, 2.1) to be fastened to the door , the handle bodies (2.3, 2.3') of the door handles comprising recesses (2.3.1, 2.3.1') for receiving a vertical latch which is held such that it can be pivoted into a horizontal position, it being possible for the latches to be locked in the horizontal position by way of locking means (3.2, 3.2'), the recesses (2.3.1, 2.3.1') of the handle bodies (2.3, 2.3') being arranged so as to lie in parallel opposite one another, and the locking means (3.2, 3.2') of the latches engage into one another in the horizontal position and therefore locking the double swing door .
An oven for preparing meals on demand comprising: a) a housing including a cooking path extending between an inlet for introducing a food product into the cooking path and an outlet for retrieving the food product from the cooking path; b) a plurality of heating zones (20a-20d) located along the cooking path for sequentially cooking the food product; c) a conveyor assembly for transporting the food product from the inlet of the cooking path to the outlet of the cooking path through the plurality of heating zones, d) at least one heating element (22a-22d) located within each cooking zone; characterized in that the conveyor assembly includes a plurality of sequentially arranged and vertically separated motorized conveyor belts (24a-24d) for transporting the food product through the plurality of cooking zones; and that the cooking path includes a series of cooperating guide ramps and deflector flanges for directing the flow of the food product along the cooking path . a) a housing including a cooking path extending between an inlet for introducing a food product into the cooking path and an outlet for retrieving the food product from the cooking path; b) a plurality of heating zones (20a-20d) located along the cooking path for sequentially cooking the food product; c) a conveyor assembly for transporting the food product from the inlet of the cooking path to the outlet of the cooking path through the plurality of heating zones, d) at least one heating element (22a-22d) located within each cooking zone; characterized in that the conveyor assembly includes a plurality of sequentially arranged and vertically separated motorized conveyor belts (24a-24d) for transporting the food product through the plurality of cooking zones;
A process comprising distilling in a distillation zone comprised of 20 or more theoretical distillation stages, at a pressure of no greater than 0.04 MPa and a reflux ratio (D/L) of at least 1:1, an amount of an initial solution comprised of tert-butyl hydroperoxide in tert-butyl alcohol, the initial solution having a tert-butyl hydroperoxide concentration of up to 60 wt.% and a total impurity content greater than 0.01 wt.%, for a time and under distillation conditions so that a concentrated solution comprised of tert-butyl hydroperoxide in tert-butyl alcohol is formed; and separating an overhead distillate from the distillation zone so that the concentrated solution thereafter has a tert-butyl hydroperoxide concentration greater than 60 wt.%, a tert-butyl alcohol concentration less than 40 wt.%, a water impurity content no greater than 0.1 wt.% and a total impurity content of no greater than 1 wt.%. distilling in a distillation zone comprised of 20 or more theoretical distillation stages, at a pressure of no greater than 0.04 MPa and a reflux ratio (D/L) of at least 1:1, an amount of an initial solution comprised of tert-butyl hydroperoxide in tert-butyl alcohol, the initial solution having a tert-butyl hydroperoxide concentration of up to 60 wt.% and a total impurity content greater than 0.01 wt.%, for a time and under distillation conditions so that a concentrated solution comprised of tert-butyl hydroperoxide in tert-butyl alcohol is formed; and separating an overhead distillate from the distillation zone so that the concentrated solution thereafter has a tert-butyl hydroperoxide concentration greater than 60 wt.%, a tert-butyl alcohol concentration less than 40 wt.%, a water impurity content no greater than 0.1 wt.% and a total impurity content of no greater than 1 wt.%.
A process for production of porous amorphous silica from siliceous plant matter containing non-siliceous inorganic matter comprising the steps of: a) soaking said siliceous plant matter in an aqueous solution comprising a chelating agent wherein said chelating agent is present in an amount which extracts at least some of said non-siliceous inorganic matter; b) separating the aqueous solution from said siliceous plant matter; c) manipulating the amount of at least one preselected non-siliceous inorganic substance in said siliceous plant matter by controlling the amount of the chelating agent, or by introducing mineral acids into said siliceous plant matter, or by mixing the desired amount of preselected non-siliceous inorganic matter into the siliceous plant matter, such that the amount of the preselected non-siliceous inorganic substance remaining in the plant matter is established at a preselected amount of from 20 ppm to 25,000 ppm, said preselected amount of the at least one preselected non-siliceous inorganic substance selected to control the surface area of the porous amorphous silica obtained after heat treatment within the range of 10 m 2 /g and 450 m 2 /g, the preselected non-siliceous inorganic substance including elements or compounds of alkali metals, alkali earth metals, aluminum, boron, iron, manganese, titanium, and/or phosphorus; and d) heat treating said siliceous plant matter in the presence of oxygen at a temperature in the range of 200° C to 1,000° C wherein the resulting silica is comprised of silica of porous amorphous form. a) soaking said siliceous plant matter in an aqueous solution comprising a chelating agent wherein said chelating agent is present in an amount which extracts at least some of said non-siliceous inorganic matter; b) separating the aqueous solution from said siliceous plant matter; c) manipulating the amount of at least one preselected non-siliceous inorganic substance in said siliceous plant matter by controlling the amount of the chelating agent, or by introducing mineral acids into said siliceous plant matter, or by mixing the desired amount of preselected non-siliceous inorganic matter into the siliceous plant matter, such that the amount of the preselected non-siliceous inorganic substance remaining in the plant matter is established at a preselected amount of from 20 ppm to 25,000 ppm, said preselected amount of the at least one preselected non-siliceous inorganic substance selected to control the surface area of the porous amorphous silica obtained after heat treatment within the range of 10 m 2 /g and 450 m 2 /g, the preselected non-siliceous inorganic substance including elements or compounds of alkali metals, alkali earth metals, aluminum, boron, iron, manganese, titanium, and/or phosphorus; and d) heat treating said siliceous plant matter in the presence of oxygen at a temperature in the range of 200° C to 1,000° C wherein the resulting silica is comprised of silica of porous amorphous form.