mhurhangee/patent-ind-claim-en huggingface dataset:
Coated lens comprising at least one lens substrate and at least one coating, characterized in that the lens substrate comprises (i) at least two optical materials, the at least two optical materials being selected from the group consisting of at least one thermosetting hard resin, at least one thermoplastic hard resin, at least one photochromic material and at least one glass, the at least two different optical materials comprise at least one optical material comprising at least one glass, or (ii) a single optical material, the single optical material being at least one glass, and the coating comprises at least one anti-reflective coating comprising a lower part and an upper part, the lower part being next to a surface of the lens substrate, the lower part comprising an alternating layer sequence of [L, M] n , with L having a wavelength dependent refractive index ranging from 1.473 at 380 nm to 1.456 at 780 nm, M having a wavelength dependent refractive index ranging from 1.632 at 380 nm to 1.599 at 780 nm or M having a wavelength dependent refractive index ranging from 1.750 at 380 nm to 1.701 at 780 nm, n being ≥ 1, and the upper part comprising a layer sequence [H, M, L] m , with H having a wavelength dependent refractive index ranging from 2.832 at 380 nm to 2.270 at 780 nm, M having a wavelength dependent refractive index ranging from 1.632 at 380 nm to 1.599 at 780 nm or M having a wavelength dependent refractive index ranging from 1.750 at 380 nm to 1.701 at 780 nm, L having a wavelength dependent refractive index ranging from 1.473 at 380 nm to 1.456 at 780 nm and m being ≥ 1, the anti-reflective coating comprising at least, beginning from the surface to be coated, 0.19459·λ 0 /4·L to 0.23394·λ 0 /4·L; 0.48912·λ 0 /4·M to 0.77248·λ 0 /4·M; 0.32489·λ 0 /4·L to 0.61648·λ 0 /4·L; 0.36292·λ 0 /4·M to 0.54573·λ 0 /4·M; 0.48976·λ 0 /4·L to 0.80061·λ 0 /4·L; 0.59960·λ 0 /4·M to 0.83505·λ 0 /4·M; 0.10179·λ 0 /4·H to 0.23052·λ 0 /4·H; 0.50401·λ 0 /4·M to 0.70778·λ 0 /4·M; 0.30008·λ 0 /4·H to 0.48019·λ 0 /4·H; 0.99344·λ 0 /4·L to 1.35331·λ 0 /4·L, with λ 0 being in the range of 500 nm and 600 nm, M having a wavelength dependent refractive index of 1.614 at 500 nm to 1.606 at 600 nm or M having a wavelength dependent refractive index of 1.724 at 500 nm to 1.712 at 600 nm, L having a wavelength dependent refractive index of 1.462 at 500 nm and 1.459 at 600 nm and H having a wavelength dependent refractive index of 2.440 at 500 nm and 2.336 at 600 nm. (i) at least two optical materials, the at least two optical materials being selected from the group consisting of at least one thermosetting hard resin, at least one thermoplastic hard resin, at least one photochromic material and at least one glass, the at least two different optical materials comprise at least one optical material comprising at least one glass, or (ii) a single optical material, the single optical material being at least one glass,
A method for providing a non-uniform barrier coating on a hollow container comprising: a) providing a hollow container comprising molded pulp, wherein said hollow container comprises a bottom portion , a main portion and an upper portion , wherein said main portion is arranged between said bottom portion and said upper portion , wherein said hollow container comprises a bottom surface and sidewalls extending from said bottom surface to an opening of said hollow container; said sidewalls and said bottom surface defining an exterior surface and an interior surface of said hollow container, b) depositing a polymeric powder onto said interior surface in at least one predetermined portion (105a-d) of said hollow container by means of a spraying device capable of charging the polymeric powder prior to or during deposition of said polymeric powder, c) treating said hollow container with heat or irradiation under conditions that melt and/or cure said polymeric powder, characterized in that the electrical conductivity of said at least one predetermined portion (105a-d) is higher than the electrical conductivity of the remaining portions of said hollow container during said polymeric powder deposition step b), and wherein the thickness, t1, of said barrier coating in said at least one predetermined portion (105a-d) is at least 10%, preferably at least 20% higher than the thickness, t2, of said barrier coating in the remaining portions of said container . a) providing a hollow container comprising molded pulp, wherein said hollow container comprises a bottom portion , a main portion and an upper portion , wherein said main portion is arranged between said bottom portion and said upper portion , wherein said hollow container comprises a bottom surface and sidewalls extending from said bottom surface to an opening of said hollow container; said sidewalls and said bottom surface defining an exterior surface and an interior surface of said hollow container, b) depositing a polymeric powder onto said interior surface in at least one predetermined portion (105a-d) of said hollow container by means of a spraying device capable of charging the polymeric powder prior to or during deposition of said polymeric powder, c) treating said hollow container with heat or irradiation under conditions that melt and/or cure said polymeric powder,
A method for an imaging apparatus , comprising: calculating a model of a subject based on one or more of prior image reconstructions and fluoroscopic exposures; calculating a likelihood of a collision between the imaging apparatus and one or more of the subject and a subject support based on the model of the subj ect; performing a scan of the subject responsive to the likelihood below a threshold; and not performing the scan otherwise. calculating a model of a subject based on one or more of prior image reconstructions and fluoroscopic exposures; calculating a likelihood of a collision between the imaging apparatus and one or more of the subject and a subject support based on the model of the subj ect; performing a scan of the subject responsive to the likelihood below a threshold; and not performing the scan otherwise.
An injection device comprising: a drive mechanism , the drive mechanism comprising: a drive rod being axially moveable; a plunger rod being axially moveable; and a gear assembly , wherein the gear assembly is arranged such that an axial movement of the drive rod generates an axial movement of the plunger rod, wherein the drive mechanism is arranged at a finger grip of the injection device, and characterised in that the finger grip is releasably arranged. a drive rod being axially moveable; a plunger rod being axially moveable; and a gear assembly , wherein the gear assembly is arranged such that an axial movement of the drive rod generates an axial movement of the plunger rod, wherein the drive mechanism is arranged at a finger grip of the injection device, and characterised in that the finger grip is releasably arranged.
A synergistic microbiocidal composition comprising: (a) a nonionic surfactant with structure: R 2 O(CH 2 CH(CH 3 )O) 3 (CH 2 CH 2 O) 7 H where R 2 is a C 12 linear alkyl group; and (b) glutaraldehyde; wherein a weight ratio of the glutaraldehyde to nonionic surfactant is from 17:1 to 1:4.
A vaccine or immunogenic composition comprising: a carrier polypeptide comprising an amino acid sequence set forth in SEQ ID NO 1 and crosslinked to said carrier polypeptide is an antigenic polysaccharide wherein the antigenic polysaccharide is isolated from Francisella and is an O-antigen.
Apparatus for treating and cooling foundry moulding sand, comprising a mixing container and a mixing tool rotatable about a drive shaft, wherein there is provided an air feed for the feed of air into the container interior, wherein the mixing tool has at least two mixing vanes spaced from each other in the vertical direction and at least one mixing vane has a mixer blade with a surface which is inclined relative to the horizontal, wherein the container wall is inclined so that the container cross-section becomes larger in an upward direction from the container bottom, characterised in that each mixing vane has a mixer blade , wherein the spacing between mixer blade and container wall is approximately the same for all mixer blades.
A system for activating a neuronal structure, the system comprising: multiple stimulators or channels (731-735) for stimulating various coils sequentially, each of said multiple stimulators or channels having a capacitor and a switch, such that said system comprises multiple capacitors and multiple switches; a first transcranial magnetic stimulation (TMS) coil comprising a base portion having windings of multiple spaced apart members connected to one of said multiple stimulators or channels, and further connected to one of said multiple capacitors and to one of said multiple switches ; a second TMS coil comprising a base portion having windings of multiple spaced apart members connected to another of said multiple stimulators or channels and further connected to another of said multiple capacitors and to another of said multiple switches ; and a control unit for controlling timing parameters for each of said multiple stimulators or channels, characterised in that said multiple stimulators or channels are configured to first activate said first TMS coil, and after a time interval of less than one millisecond to secondly activate said second TMS coil, wherein said first activation and said second activation are done using different stimulators or stimulator channels and wherein the different stimulator channels are stimulated consecutively such that at each time period at most one of the stimulator channels is active. multiple stimulators or channels (731-735) for stimulating various coils sequentially, each of said multiple stimulators or channels having a capacitor and a switch, such that said system comprises multiple capacitors and multiple switches; a first transcranial magnetic stimulation (TMS) coil comprising a base portion having windings of multiple spaced apart members connected to one of said multiple stimulators or channels, and further connected to one of said multiple capacitors and to one of said multiple switches ; a second TMS coil comprising a base portion having windings of multiple spaced apart members connected to another of said multiple stimulators or channels and further connected to another of said multiple capacitors and to another of said multiple switches ; and a control unit for controlling timing parameters for each of said multiple stimulators or channels, characterised in that said multiple stimulators or channels are configured to first activate said first TMS coil, and after a time interval of less than one millisecond to secondly activate said second TMS coil, wherein said first activation and said second activation are done using different stimulators or stimulator channels and wherein the different stimulator channels are stimulated consecutively such that at each time period at most one of the stimulator channels is active.
Vehicle subassembly in particular for an off-road utility vehicle , comprising at least one chassis and at least one drive train that can be accommodated on the chassis , the drive train comprising at least two fixed axle units having at least one torque tube frame each, wherein the torque tube frames of the at least two fixed axle units are articulated to one another by means of at least one antiroll bar device attached to the chassis , characterized by at least one takeup device , which is suitable and configured to link to the chassis at least one battery of at least one battery device to supply power to at least one electric machine device providing at least one electric carriage drive, in the forward traveling direction in front of and/or behind the antiroll bar device and at least partially above the torque tube frames .
A method for executing data processing, the method being implemented by computer means and comprising: - for a plurality of objects (OBJ) of the data processing, conducting an analysis of a computer code (COD) of the data processing defining a use of said objects (OBJ) in the data processing, - on the basis of the analysis of the computer code (COD), allocating each object to one of a plurality of memory areas (ZMi,j) for the construction and then the destruction of each object in the corresponding memory area during the data processing, in such a way that each memory area (ZMi,j) exhibits stack operation during the data processing, wherein at least two memory areas (ZMi,j) form respective separate areas of the same memory entity (EM1, EM2), characterized in that each of the two memory areas (ZMi,j) is associated with a pointer (Pi,j) configured to point toward a first free space of the memory area concerned, the pointer (Pi,j) of each of the two memory areas being configured to move closer to the pointer (Pi,j) of the other memory area if an object is constructed in the memory area concerned. - for a plurality of objects (OBJ) of the data processing, conducting an analysis of a computer code (COD) of the data processing defining a use of said objects (OBJ) in the data processing, - on the basis of the analysis of the computer code (COD), allocating each object to one of a plurality of memory areas (ZMi,j) for the construction and then the destruction of each object in the corresponding memory area during the data processing, in such a way that each memory area (ZMi,j) exhibits stack operation during the data processing, wherein at least two memory areas (ZMi,j) form respective separate areas of the same memory entity (EM1, EM2), characterized in that each of the two memory areas (ZMi,j) is associated with a pointer (Pi,j) configured to point toward a first free space of the memory area concerned, the pointer (Pi,j) of each of the two memory areas being configured to move closer to the pointer (Pi,j) of the other memory area if an object is constructed in the memory area concerned.
A method for bending and tempering a glass sheet, the method comprising: - heating a flat glass sheet (G) in a furnace supported by rollers for the purpose of bending and tempering, - initiating the transfer step of the glass sheet (G) by transferring the glass sheet (G) onto the transfer conveyor by activating the transport platform of the transfer conveyor , - transferring the flat glass sheet (G) by the transfer conveyor from the furnace onto the bending conveyor , when the bending conveyor is straightened, - bending the bending conveyor and the glass sheet (G) to the desired curvature, - cooling the glass sheet (G) by air blasts, when the bending conveyor and the glass sheet (G) are at the desired curvature, characterized in that the transfer conveyor transfers the flat glass sheet (G) away from the furnace to the bending conveyor in the longitudinal direction (z) of the rollers of the furnace , which is the transverse direction in relation to the direction of movement (x) of the glass sheet in the furnace during heating, and that said air blasting from the blast cooling means is initiated in the bending conveyor towards the glass sheet (G) of the desired curvature immediately once the glass sheet (G) has reached the desired curvature. - heating a flat glass sheet (G) in a furnace supported by rollers for the purpose of bending and tempering, - initiating the transfer step of the glass sheet (G) by transferring the glass sheet (G) onto the transfer conveyor by activating the transport platform of the transfer conveyor , - transferring the flat glass sheet (G) by the transfer conveyor from the furnace onto the bending conveyor , when the bending conveyor is straightened, - bending the bending conveyor and the glass sheet (G) to the desired curvature, - cooling the glass sheet (G) by air blasts, when the bending conveyor and the glass sheet (G) are at the desired curvature,
A tube structure for packaging products, comprising: a tube body; and a tube shoulder/nozzle comprised of a barrier material blend, wherein the barrier material blend comprises high density polyethylene (HDPE), ethylene vinyl alcohol copolymer (EVOH) and cyclic olefin copolymer (COC); and wherein the HDPE in the barrier material blend is present in an amount of 60 wt% to 90 wt%. a tube body; and a tube shoulder/nozzle comprised of a barrier material blend, wherein the barrier material blend comprises high density polyethylene (HDPE), ethylene vinyl alcohol copolymer (EVOH) and cyclic olefin copolymer (COC); and wherein the HDPE in the barrier material blend is present in an amount of 60 wt% to 90 wt%.
An outlet housing adapted to discharge the exhaust gas flow of an internal combustion engine, wherein an exhaust grille having a plurality of grille vanes fulfills the function of guidance during discharge of the exhaust gases on an outlet plane , wherein the grille vanes of the said exhaust grille at least partially extend along the said outlet housing outlet plane and in a plane parallel to the said outlet plane , the exhaust gas reception angles of the grille vanes of the said exhaust grille are different from the trailing angle relative to the grille vanes after the exhaust gas passes through the said grille vanes , said grille vanes make the exhaust gas grille vane's trailing angle parallel to the outlet plane , the outlet housing being characterized in that the vane flow reception angle (β) between the exhaust gas flow coming direction and a plane parallel to the outlet plane is at most 82 degrees, and in that said outlet plane comprises outlet plane first and second lobe projections formed by an asymmetrical first and second lobe of the outlet housing . the grille vanes of the said exhaust grille at least partially extend along the said outlet housing outlet plane and in a plane parallel to the said outlet plane , the exhaust gas reception angles of the grille vanes of the said exhaust grille are different from the trailing angle relative to the grille vanes after the exhaust gas passes through the said grille vanes , said grille vanes make the exhaust gas grille vane's trailing angle parallel to the outlet plane , the outlet housing being characterized in that the vane flow reception angle (β) between the exhaust gas flow coming direction and a plane parallel to the outlet plane is at most 82 degrees, and in that said outlet plane comprises outlet plane first and second lobe projections formed by an asymmetrical first and second lobe of the outlet housing .
A system for providing power to an accessory on a moving element on a conveyor while the moving element is moving, the system comprising: a plurality of moving elements, each moving element comprising a moving element power transfer unit comprising one or more power pick-up panels ; and at least one track section with which the plurality of moving elements are associated, the track section comprising: a control system ; a track on which the plurality of moving elements move; and a track power transfer unit comprising a plurality of inductive panels , characterized in that the one or more power pick-up panels extend toward the track section and into gaps between the plurality of inductive panels, each of which extends towards the moving element, such that the one or more power pick-up panels and the plurality of inductive panels overlap in an interlaced fashion. a plurality of moving elements, each moving element comprising a moving element power transfer unit comprising one or more power pick-up panels ; and at least one track section with which the plurality of moving elements are associated, the track section comprising: a control system ; a track on which the plurality of moving elements move; and a track power transfer unit comprising a plurality of inductive panels , a control system ; a track on which the plurality of moving elements move; and a track power transfer unit comprising a plurality of inductive panels , characterized in that the one or more power pick-up panels extend toward the track section and into gaps between the plurality of inductive panels, each of which extends towards the moving element, such that the one or more power pick-up panels and the plurality of inductive panels overlap in an interlaced fashion.
A method for detecting a hematopoietic disease comprising detecting the presence or absence of a JAK2 mutation using a biological sample obtained from an individual, comprising: a) evaluating a sample from the individual for the presence or absence of a mutation in JAK2 nucleic acid or JAK2 polypeptide, wherein said mutation in the JAK2 nucleic acid is a2091t, and the mutation in the JAK2 polypeptide is an amino acid substitution selected from among N533Y; and b) identifying said individual as having a hematopoietic disease when said JAK2 nucleic acid or JAK2 polypeptide, respectively, comprises said mutation. a) evaluating a sample from the individual for the presence or absence of a mutation in JAK2 nucleic acid or JAK2 polypeptide, wherein said mutation in the JAK2 nucleic acid is a2091t, and the mutation in the JAK2 polypeptide is an amino acid substitution selected from among N533Y; and b) identifying said individual as having a hematopoietic disease when said JAK2 nucleic acid or JAK2 polypeptide, respectively, comprises said mutation.
Use, to improve the resistance of a dry powder formulation to moisture, of magnesium stearate in powder form in the production of a multi-dose inhaler having a pre-dosed unit containing a dry powder formulation for inhalation, wherein the dry powder formulation comprises a pharmaceutically inactive carrier in a non-inhalable particle size, a finely distributed pharmaceutical active substance in the form of particles in an inhalable particle size and 0.4 to 1 wt.%, based on the dry powder formulation, of magnesium stearate.
A method for assigning electric vehicles to charging stations (CS1, ..., CSk, CSk+1, ..., CSp), by means of a communication system and control logic which is in communication with the electric vehicles and the charging stations, comprising the steps of a) Assigning electric vehicles to different electric vehicle supply equipment (EVSE1.1, EVSE1.2, ..., EVSEk.1, EVSEk.n, EVSEk+1.1, EVSE k+1.n', ..., EVSEp.1, EVSEp.n") of the charging stations (CS1, ..., CSk, CSk+1, ..., CSp), prior to arrival at the charging stations, wherein at least two charging stations are connected to different power grid segments (PSGa, PSGb), characterized in that said assignment results from a predicted matching of electric vehicle charging information, being at least a State-of-Charge, (SOC) of said electric vehicles and charging power information, being at least the parameter of a provided charging power, of said different charging stations (CS1, ..., CSk, CSk+1, ..., CSp) wherein said matching is based on said electric vehicle information and said charging station parameter. a) Assigning electric vehicles to different electric vehicle supply equipment (EVSE1.1, EVSE1.2, ..., EVSEk.1, EVSEk.n, EVSEk+1.1, EVSE k+1.n', ..., EVSEp.1, EVSEp.n") of the charging stations (CS1, ..., CSk, CSk+1, ..., CSp), prior to arrival at the charging stations, wherein at least two charging stations are connected to different power grid segments (PSGa, PSGb),