mhurhangee/patent-ind-claim-en huggingface dataset:
Tugger train trailer having a chassis and a transport device for receiving at least one load carrier (LT) having casters (R), wherein the tugger train trailer is provided with at least one locking means which secures the received load carrier (LT) in the vehicle transverse direction (Q) of the tugger train trailer , characterized in that the locking means has a blocking element (21a; 21b) which is electromechanically activatable between a locking position and an unlocking position, wherein the blocking element (21a; 21b) is activated in the direction of the locking position by a spring installation , and is activated to the unlocking position by means of an electric drive installation.
Soluble human Fc gamma receptor for use in a method of treatment of autoimmune bullous diseases in a subject, wherein the receptor consists of the amino acid sequence shown in SEQ ID No: 1 or 11.
An assembly comprising: a prosthetic heart valve (1030; 1180) comprising an annular frame that is radially collapsible and expandable between a radially collapsed configuration and a radially expanded configuration, and a valve structure positioned within the frame; and a support member (1014; 1130) separate from the prosthetic heart valve (1030; 1180) configured to be positioned annularly around the native mitral valve leaflets within the left ventricle of a patient's heart; wherein the support member (1014; 1130) comprises a first end portion , a second end portion (1022; 1134), and a longitudinally extending linking portion between the first end portion and the second end portion (1022; 1134), and the first end portion comprises a locking member (1016; 1132) configured to couple to the second end portion (1022; 1134) to form an annular band; and wherein after the support member (1014; 1130) is deployed around the native mitral valve leaflets and the second end portion (1022; 1134) engages the locking member (1016; 1132) to form the annular band, the prosthetic heart valve (1030; 1180) is deployable within the native mitral valve leaflets such that the native mitral valve leaflets are positioned between and engaged by the annular band and the prosthetic heart valve (1030; 1180); the assembly characterised in that the support member (1014; 1130) has a lumen for receiving a guidewire (1000; 1124). a prosthetic heart valve (1030; 1180) comprising an annular frame that is radially collapsible and expandable between a radially collapsed configuration and a radially expanded configuration, and a valve structure positioned within the frame; and a support member (1014; 1130) separate from the prosthetic heart valve (1030; 1180) configured to be positioned annularly around the native mitral valve leaflets within the left ventricle of a patient's heart; wherein the support member (1014; 1130) comprises a first end portion , a second end portion (1022; 1134), and a longitudinally extending linking portion between the first end portion and the second end portion (1022; 1134), and the first end portion comprises a locking member (1016; 1132) configured to couple to the second end portion (1022; 1134) to form an annular band; and wherein after the support member (1014; 1130) is deployed around the native mitral valve leaflets and the second end portion (1022; 1134) engages the locking member (1016; 1132) to form the annular band, the prosthetic heart valve (1030; 1180) is deployable within the native mitral valve leaflets such that the native mitral valve leaflets are positioned between and engaged by the annular band and the prosthetic heart valve (1030; 1180); the assembly characterised in that the support member (1014; 1130) has a lumen for receiving a guidewire (1000; 1124).
A display device comprising: a display panel to display an image; and a reflective sheet reflecting light emitted toward a cover bottom and comprising a reflective layer , a first skin layer formed on an upper portion of the reflective layer , and a second skin layer formed on a lower portion of the reflective layer , wherein the first and second skin layers are formed so as to have an embossing surface to prevent adhesion between the reflective layer and the light guide plate and increase efficiency of light, and the reflective layer comprises a plurality of air bubbles , characterized in that said display device further comprises a plurality of light emitting diodes, LEDs, to generate light so as to supply the light to the display panel and a light guide plate to guide light to the display panel ; in that said cover bottom is disposed below the LEDs toward the light guide plate ; and in that the air bubbles have an oval shape having a major axis in a horizontal direction. a display panel to display an image; and a reflective sheet reflecting light emitted toward a cover bottom and comprising a reflective layer , a first skin layer formed on an upper portion of the reflective layer , and a second skin layer formed on a lower portion of the reflective layer , wherein the first and second skin layers are formed so as to have an embossing surface to prevent adhesion between the reflective layer and the light guide plate and increase efficiency of light, and the reflective layer comprises a plurality of air bubbles ,
An ink set, comprising: a pre-treatment fixing fluid including at least two metal salts; and a fixable, ultraviolet (UV) curable ink including: an aqueous ink vehicle; a pigment dispersed in the aqueous ink vehicle; a dispersant; and a polyurethane polymer dispersion suspended as droplets within the aqueous ink vehicle, the polyurethane polymer dispersion including a polyurethane polymer selected from the group consisting of a polyether-based polyurethane, a polyester-based polyurethane, a polycarbonate-based polyurethane, and mixtures thereof, and the polyurethane polymer having i) an acid number ranging from 0 mg/g to less than 20 mg/g and ii) a glass transition temperature of less than 0°C; wherein a water soluble or water dispersible photoinitiator is present in the pre-treatment fixing fluid or in the fixable, UV curable ink. a pre-treatment fixing fluid including at least two metal salts; and a fixable, ultraviolet (UV) curable ink including: an aqueous ink vehicle; a pigment dispersed in the aqueous ink vehicle; a dispersant; and a polyurethane polymer dispersion suspended as droplets within the aqueous ink vehicle, the polyurethane polymer dispersion including a polyurethane polymer selected from the group consisting of a polyether-based polyurethane, a polyester-based polyurethane, a polycarbonate-based polyurethane, and mixtures thereof, and the polyurethane polymer having i) an acid number ranging from 0 mg/g to less than 20 mg/g and ii) a glass transition temperature of less than 0°C; an aqueous ink vehicle; a pigment dispersed in the aqueous ink vehicle; a dispersant; and a polyurethane polymer dispersion suspended as droplets within the aqueous ink vehicle, the polyurethane polymer dispersion including a polyurethane polymer selected from the group consisting of a polyether-based polyurethane, a polyester-based polyurethane, a polycarbonate-based polyurethane, and mixtures thereof, and the polyurethane polymer having i) an acid number ranging from 0 mg/g to less than 20 mg/g and ii) a glass transition temperature of less than 0°C; wherein a water soluble or water dispersible photoinitiator is present in the pre-treatment fixing fluid or in the fixable, UV curable ink.
A lubricating oil composition having a sulfated ash content of no greater than 1.0 mass %, a sulfur content of no greater than 0.4 mass %, a phosphorus content of from 0.08 to 0.12 mass %, and a TBN of from 7 to 15, said lubricating oil composition formed by admixing: (a) a major amount of oil of lubricating viscosity; (b) at least 0.5 mass % of an ashless antioxidant selected from the group consisting of sulfur-free phenolic antioxidants, aminic antioxidants, and mixtures thereof; (c) a minor amount of an overbased metal detergent; and, (d) a dihydrocarbyl dithiophosphate zinc salt; wherein at least 60% of TBN contributed to the lubricating oil composition by overbased metal detergent is contributed by overbased magnesium detergent and wherein said overbased magnesium detergent is present in an amount providing the lubricating oil composition with at least 1100ppm of magnesium, and overbased ash-containing detergent based on a metal other than magnesium are present in amounts contributing no greater than 40% of the TBN of the lubricating oil composition contributed by overbased detergent. (a) a major amount of oil of lubricating viscosity; (b) at least 0.5 mass % of an ashless antioxidant selected from the group consisting of sulfur-free phenolic antioxidants, aminic antioxidants, and mixtures thereof; (c) a minor amount of an overbased metal detergent; and, (d) a dihydrocarbyl dithiophosphate zinc salt;
A method of fabricating an impregnated fiber assembly, the method comprising at least the following steps: - introducing a first suspension comprising a first powder of solid particles of ceramic material, of metal material, or of carbon material into an inside volume defined by an inside face of a first fiber texture of hollow shape placed in a mold, an outer face of the first fiber texture being present facing a wall of the mold; - using the action of centrifugal force to impregnate the first fiber texture with the first suspension by rotating the mold; - after impregnating the first texture with the first suspension, positioning a second fiber texture on the inside face of the first fiber texture in order to obtain a fiber assembly; - introducing a second suspension comprising a second powder of solid particles made of ceramic material, of metal material, or of carbon, into the inside volume after putting the second fiber texture into position; and - using the action of centrifugal force to impregnate the second fiber texture with the second suspension by rotating the mold in order to obtain an impregnated fiber assembly, the impregnation with the first suspension and the impregnation with the second suspension being carried out at different speeds of rotation of the mold. - introducing a first suspension comprising a first powder of solid particles of ceramic material, of metal material, or of carbon material into an inside volume defined by an inside face of a first fiber texture of hollow shape placed in a mold, an outer face of the first fiber texture being present facing a wall of the mold; - using the action of centrifugal force to impregnate the first fiber texture with the first suspension by rotating the mold; - after impregnating the first texture with the first suspension, positioning a second fiber texture on the inside face of the first fiber texture in order to obtain a fiber assembly; - introducing a second suspension comprising a second powder of solid particles made of ceramic material, of metal material, or of carbon, into the inside volume after putting the second fiber texture into position; and - using the action of centrifugal force to impregnate the second fiber texture with the second suspension by rotating the mold in order to obtain an impregnated fiber assembly, the impregnation with the first suspension and the impregnation with the second suspension being carried out at different speeds of rotation of the mold.
A method for contactless recording of a track geometry of a track by means of a rail vehicle that is moved along the track on on-track undercarriages , wherein transversely extending profile data of the track are compiled by means of a laser scanner , wherein by means of an evaluation device , the profile data are evaluated relative to a reference base pre-defined on the rail vehicle in order to derive from this the course of a track central axis and/or a rail , characterized in that that a reference plane, aligned with pivot points of the on-track undercarriages and with the laser scanner , is specified as reference base , that a displacement of the reference plane relative to a rail edge point is determined from the profile data, and that from this and from distances between the pivot points and the laser scanner , a curvature of a track curve is derived.
A method for finish machining a bevel gear in the region of the tooth head of a tooth , having the following steps: - providing a bevel gear on a workpiece spindle of a machine tool , - rotationally driving this bevel gear about a workpiece axis of rotation (B) of the workpiece spindle , - providing a first machining tool on a tool spindle of the machine tool , - machining the bevel gear by means of the first machining tool , characterized in - providing a grinding tool as a second machining tool on the tool spindle or on a further tool spindle of the machine tool , - driving this grinding tool to rotate about a tool axis of rotation (A1, A2) of this tool spindle , wherein the grinding tool comprises a concave machining region , which has a ring shape and which is arranged concentrically in relation to the tool axis of rotation (A1, A2), and which forms a circumferential narrowing or circumferential reduction which is shown in the axial section of the grinding tool , - set the axis of rotation (A1, A2) at an angle to the workpiece axis of rotation (B), - advancing the grinding tool in relation to the bevel gear in order to bring the concave machining region of the grinding tool into chip-removing operational connection with an edge in the region of the tooth head , wherein this edge defines a transition between a tooth flank of the tooth and the tooth head and wherein this edge extends along the tooth width (b) of the tooth , to produce a head chamfer on this edge by grinding machining - whereby during grinding machining the concave machining region fits snugly against the tooth tip of the tooth . - providing a bevel gear on a workpiece spindle of a machine tool , - rotationally driving this bevel gear about a workpiece axis of rotation (B) of the workpiece spindle , - providing a first machining tool on a tool spindle of the machine tool , - machining the bevel gear by means of the first machining tool , characterized in - providing a grinding tool as a second machining tool on the tool spindle or on a further tool spindle of the machine tool , - driving this grinding tool to rotate about a tool axis of rotation (A1, A2) of this tool spindle , wherein the grinding tool comprises a concave machining region , which has a ring shape and which is arranged concentrically in relation to the tool axis of rotation (A1, A2), and which forms a circumferential narrowing or circumferential reduction which is shown in the axial section of the grinding tool , - set the axis of rotation (A1, A2) at an angle to the workpiece axis of rotation (B), - advancing the grinding tool in relation to the bevel gear in order to bring the concave machining region of the grinding tool into chip-removing operational connection with an edge in the region of the tooth head , wherein this edge defines a transition between a tooth flank of the tooth and the tooth head and wherein this edge extends along the tooth width (b) of the tooth , to produce a head chamfer on this edge by grinding machining - whereby during grinding machining the concave machining region fits snugly against the tooth tip of the tooth .
A process of purifying a synthetic peptide comprising the guanylate cyclase C agonist sequence selected from the group consisting of SEQ ID NOs: 1-54 and 56-251, the process comprising: providing a first peptide solution comprising a peptide comprising the guanylate cyclase C agonist sequence selected from the group consisting of SEQ ID NOs: 1-54 and 56-251, water, and acetonitrile; loading a C 18 RP-HPLC or polymeric adsorbent column with the first peptide solution to adsorb the peptide onto the C 18 RP-HPLC or polymeric adsorbent column, eluting the peptide off the C 18 RP-HPLC or polymeric adsorbent column with an isopropanol/water solution to form a second peptide solution, subjecting the second peptide solution to rotoevaporation to remove the excess isopropanol, lyophilizing the second peptide solution such that a dry peptide is obtained, reconstituting the dry peptide in a buffer containing ammonium acetate to form a third peptide solution, and lyophilizing the third peptide solution such that a purified dry peptide is obtained. providing a first peptide solution comprising a peptide comprising the guanylate cyclase C agonist sequence selected from the group consisting of SEQ ID NOs: 1-54 and 56-251, water, and acetonitrile; loading a C 18 RP-HPLC or polymeric adsorbent column with the first peptide solution to adsorb the peptide onto the C 18 RP-HPLC or polymeric adsorbent column, eluting the peptide off the C 18 RP-HPLC or polymeric adsorbent column with an isopropanol/water solution to form a second peptide solution, subjecting the second peptide solution to rotoevaporation to remove the excess isopropanol, lyophilizing the second peptide solution such that a dry peptide is obtained, reconstituting the dry peptide in a buffer containing ammonium acetate to form a third peptide solution, and lyophilizing the third peptide solution such that a purified dry peptide is obtained.
A device for generating a plasma jet, wherein a nozzle of the device comprises: an inner channel , wherein the device is configured for flowing a first ignitable gas through the inner channel towards an exit opening of the inner channel , wherein a high voltage electrode is arranged in the inner channel for generating a plasma from the first ignitable gas flowing in the inner channel ; a middle channel , wherein the middle channel surrounds the inner channel , wherein the middle channel is electrically insulated from the inner channel , wherein the device is configured for flowing a monomer precursor through the middle channel towards an exit opening of the middle channel ; and an outer channel , wherein the outer channel surrounds the middle channel , wherein the outer channel is electrically insulated from the middle channel , wherein the device is configured for flowing a second ignitable gas through the outer channel towards an exit opening of the outer channel ; a nozzle cap , wherein the nozzle cap encloses a mixing volume located after the exit openings of the inner channel , the middle channel and the outer channel , wherein the mixing volume is located within the nozzle cap , and wherein the nozzle cap is provided with an exit opening after the mixing volume , wherein the exit opening of the nozzle cap is smaller than the exit opening of the outer channel . an inner channel , wherein the device is configured for flowing a first ignitable gas through the inner channel towards an exit opening of the inner channel , wherein a high voltage electrode is arranged in the inner channel for generating a plasma from the first ignitable gas flowing in the inner channel ; a middle channel , wherein the middle channel surrounds the inner channel , wherein the middle channel is electrically insulated from the inner channel , wherein the device is configured for flowing a monomer precursor through the middle channel towards an exit opening of the middle channel ; and an outer channel , wherein the outer channel surrounds the middle channel , wherein the outer channel is electrically insulated from the middle channel , wherein the device is configured for flowing a second ignitable gas through the outer channel towards an exit opening of the outer channel ; a nozzle cap , wherein the nozzle cap encloses a mixing volume located after the exit openings of the inner channel , the middle channel and the outer channel , wherein the mixing volume is located within the nozzle cap , and wherein the nozzle cap is provided with an exit opening after the mixing volume , wherein the exit opening of the nozzle cap is smaller than the exit opening of the outer channel .
A method for regulated humidification and temperature control of a gas mixture in an inner chamber of an incubator , which inner chamber is sealed off from the surroundings by a housing , comprising the steps of - controlling the temperature of the gas mixture to an inner chamber temperature which is higher than an ambient temperature prevailing outside the incubator, - evaporating a liquid in the inner chamber by means of a humidification device whose evaporative capacity can be regulated and/or condensing the moisture of the gas mixture on at least one condensation surface in the inner chamber , - continuously transferring heat from the at least one condensation surface to a cooling body arranged outside the housing with the aid of at least one heat conductor , wherein the heat transfer from the cooling body to the ambient air can be varied by varying the flow of the ambient air along heat-dissipating surfaces of the cooling body by means of at least one fan , - measuring an actual value of the humidity of the gas mixture in the inner chamber , - comparing the actual value with a target value for the humidity, - regulating the evaporative capacity if there is a deviation of the actual value from the target value. - controlling the temperature of the gas mixture to an inner chamber temperature which is higher than an ambient temperature prevailing outside the incubator, - evaporating a liquid in the inner chamber by means of a humidification device whose evaporative capacity can be regulated and/or condensing the moisture of the gas mixture on at least one condensation surface in the inner chamber , - continuously transferring heat from the at least one condensation surface to a cooling body arranged outside the housing with the aid of at least one heat conductor , wherein the heat transfer from the cooling body to the ambient air can be varied by varying the flow of the ambient air along heat-dissipating surfaces of the cooling body by means of at least one fan , - measuring an actual value of the humidity of the gas mixture in the inner chamber , - comparing the actual value with a target value for the humidity, - regulating the evaporative capacity if there is a deviation of the actual value from the target value.
A containerised generator set system , comprising: an engine operatively coupled to an alternator , the alternator comprising output terminals ; a plurality of batteries ; an engine starting and battery management system panel configured to selectively charge the battery and to start the engine ; a genset control system panel configured to control operation of the generator set system ; a circuit breaker panel configured to selectively isolate the alternator output terminals ; a power protection system panel ; a frame into which the panels are integrated to form an enclosure , the enclosure being provided adjacent at least two sides of the alternator ; and a container that houses the engine , the alternator , the batteries , and the enclosure ; wherein the enclosure is provided adjacent three sides of the alternator and surrounds the alternator to form a barrier against accidental contact, and the engine and the alternator are spaced apart from opposed side walls and at least one end wall of the container to define an access path for maintenance staff. an engine operatively coupled to an alternator , the alternator comprising output terminals ; a plurality of batteries ; an engine starting and battery management system panel configured to selectively charge the battery and to start the engine ; a genset control system panel configured to control operation of the generator set system ; a circuit breaker panel configured to selectively isolate the alternator output terminals ; a power protection system panel ; a frame into which the panels are integrated to form an enclosure , the enclosure being provided adjacent at least two sides of the alternator ; and a container that houses the engine , the alternator , the batteries , and the enclosure ; wherein the enclosure is provided adjacent three sides of the alternator and surrounds the alternator to form a barrier against accidental contact, and the engine and the alternator are spaced apart from opposed side walls and at least one end wall of the container to define an access path for maintenance staff.