mhurhangee/patent-ind-claim-en huggingface dataset:
Banknote guiding device, comprising a first, second and third guide assemblies , each guide assembly being rotary to be placed in a first or second position for guiding banknotes into channels , and wherein these channels are bi-directional, and the first and second guide assemblies are rotary about a first rotation axis , and the third guide assembly is rotary about a second rotation axis , and wherein the second rotation axis is mounted on the first guide assembly and in that the first guide assembly comprises a first plurality of blades placed along the first rotation axis , the second guide assembly comprises a second plurality of blades placed along the first rotation axis , and the third guide assembly comprises a third plurality of blades placed along the second rotation axis , further comprising two actuators: a first actuator acting jointly on the first and second guide assemblies , and a second actuator acting only on the third guide assembly , the actuators comprising an U-shaped plate provided with holes at their ends, whose displacement in the direction (A) perpendicular to the longitudinal axis of the rotation axes causes the change of position of the guide assemblies . and wherein the second rotation axis is mounted on the first guide assembly and in that the first guide assembly comprises a first plurality of blades placed along the first rotation axis , the second guide assembly comprises a second plurality of blades placed along the first rotation axis , and the third guide assembly comprises a third plurality of blades placed along the second rotation axis , further comprising two actuators: a first actuator acting jointly on the first and second guide assemblies , and a second actuator acting only on the third guide assembly , the actuators comprising an U-shaped plate provided with holes at their ends, whose displacement in the direction (A) perpendicular to the longitudinal axis of the rotation axes causes the change of position of the guide assemblies .
Actuator system, specifically a service or parking brake, comprising at least one electronically controlled electromotive actuator and at least one electronic control unit (10, ECU), which is connected via at least one electric supply line to the actuator , and wherein the control unit (10, ECU) is connected to one or to a plurality of switches, senders, sensors (S) and/or electric actuating elements and comprises at least one microprocessor with implemented software for performing a regulation strategy for controlled or regulated electrical supply of the actuator , and wherein the actuator system is designed as an electromechanically actuable motor vehicle brake system comprising an electrically actuable wheel brake for generating a defined application force between friction partners , characterized in that an electric parking brake that comprises integrated brake calipers is provided, wherein one or a plurality of items of information is/are supplied to the control unit (10, ECU) as input variables, which enable it to determine the application force exerted by the electromotive actuator and to compare it with a specified minimum application force, and wherein the control unit (10, ECU) emits at least one item of information or signal for demanding a boosting actuation to peripheral systems, components and/or electronic control units, after the target-actual value comparison has shown that the determined application force set by the actuator is smaller than the specified minimum application force.
A modular and reconfigurable autonomous electric robot capable of adapting to any type of condition and work in an agricultural environment, comprising: - a chassis with transverse and longitudinal symmetry comprising a front part , a middle part and a rear part ; - a power supply located in the front part of the chassis ; - an implement for agricultural work located in the rear part of the chassis ; - two wheel assemblies each located at transversely opposite ends of the front part of the chassis and two wheel assemblies each located at transversely opposite ends of the rear part of the chassis ; - a GNSS unit to geolocate the electric robot in real time; and - a processing and control module that controls the electric robot and is in data communication with the GNSS unit, wherein each wheel assembly located in the front part of the chassis comprises a wheel with an electric motor directly coupled to the wheel, characterized in that each wheel assembly located at the rear part of the chassis comprises a caster wheel and a caster axle , wherein the caster axle has a rotation axis (e) that is inclined by an angle of inclination (B) with respect to a vertical line (v) and allows the caster wheel to rotate around said axis. - a chassis with transverse and longitudinal symmetry comprising a front part , a middle part and a rear part ; - a power supply located in the front part of the chassis ; - an implement for agricultural work located in the rear part of the chassis ; - two wheel assemblies each located at transversely opposite ends of the front part of the chassis and two wheel assemblies each located at transversely opposite ends of the rear part of the chassis ; - a GNSS unit to geolocate the electric robot in real time; and - a processing and control module that controls the electric robot and is in data communication with the GNSS unit, wherein each wheel assembly located in the front part of the chassis comprises a wheel with an electric motor directly coupled to the wheel, characterized in that each wheel assembly located at the rear part of the chassis comprises a caster wheel and a caster axle , wherein the caster axle has a rotation axis (e) that is inclined by an angle of inclination (B) with respect to a vertical line (v) and allows the caster wheel to rotate around said axis.
An apparatus for grilling food , comprising a central pillar , a holder arm fixed to the central pillar , a piece containing a coupling bar connected to the holder arm and having at the opposite end at least one prong, a geared motor included inside of the holder arm , which also contains all its related elements located in line one in respect to the other, and an electric energy source operatively connected to the geared motor of the holder arm , characterized by said holder arm is fixed to the central pillar by a fixing means consisting in a sole piece containing two central in line perforations having a configuration similar to an infinity symbol, said perforations being elliptical and having different diameters, one corresponding to the diameter of the central pillar and the other one corresponding to the diameter of the holder arm , wherein both elliptical perforations contain an about 1 mm gap in both ends of their minor axis and through which the central pillar and the holder arm are fixed with a specific angle between them.
Pumping method in a system of vacuum pumps (SP, SPP) comprising: - a main lubricated rotary vane vacuum pump with a gas inlet port connected to a vacuum chamber and a gas outlet port leading into a conduit before coming out into the gas outlet of the system of vacuum pumps (SP, SPP), - a non-return valve positioned in the conduit between the gas outlet port and the gas outlet , and - an auxiliary lubricated rotary vane vacuum pump which has its motor and which is connected in parallel to the non-return valve , the method being characterized in that the main lubricated rotary vane vacuum pump is activated in order to pump the gases contained in the vacuum chamber through the gas outlet port ; simultaneously the auxiliary lubricated rotary vane vacuum pump is activated; and the auxiliary lubricated rotary vane vacuum pump continues to operate all the while that the main lubricated rotary vane vacuum pump pumps the gases contained in the vacuum chamber and/or all the while that the main lubricated rotary vane vacuum pump maintains a defined pressure in the vacuum chamber . - a main lubricated rotary vane vacuum pump with a gas inlet port connected to a vacuum chamber and a gas outlet port leading into a conduit before coming out into the gas outlet of the system of vacuum pumps (SP, SPP), - a non-return valve positioned in the conduit between the gas outlet port and the gas outlet , and - an auxiliary lubricated rotary vane vacuum pump which has its motor and which is connected in parallel to the non-return valve ,
A cooking appliance comprising a cooking chamber , a heating stage for heating a food product within the cooking chamber and a humidity adjustment stage for adjusting the humidity within the cooking chamber, wherein the cooking appliance further comprises: a user interface configured to allow a user to specify a texture of said food product and a degree of browning of said food product; a controller responsive to the user interface and configured to control the heating stage and the humidity adjustment stage in accordance with an algorithm having the user-specified texture of said food product and the user-specified degree of browning of said food product as parameters; and a valve arrangement responsive to the controller , the valve arrangement having a first inlet fluidly coupled to the heating stage , a second inlet fluidly coupled to the humidity adjustment stage and an outlet fluidly coupled to the cooking chamber . a user interface configured to allow a user to specify a texture of said food product and a degree of browning of said food product; a controller responsive to the user interface and configured to control the heating stage and the humidity adjustment stage in accordance with an algorithm having the user-specified texture of said food product and the user-specified degree of browning of said food product as parameters; and a valve arrangement responsive to the controller , the valve arrangement having a first inlet fluidly coupled to the heating stage , a second inlet fluidly coupled to the humidity adjustment stage and an outlet fluidly coupled to the cooking chamber .
A vane for a gas turbine engine, comprising: an airfoil extending along a camber line between a leading edge and a trailing edge , the airfoil extending along a span line between an inner end and an outer end , the airfoil extending laterally between a first side and a second side , and the airfoil including a base section , a first side section and a second side section ; the base section defining at least a portion of the trailing edge of the airfoil , the base section laterally between and connected to the first side section and the second side section , and the base section comprising metal material; the first side section defining at least a portion of the first side of the airfoil , and the first side section comprising first non-metal material; and the second side section defining at least a portion of the second side of the airfoil , and the second side section comprising second non-metal material, characterized in that the base section has a first portion and a second portion aligned along the camber line ; the first portion is between the second portion and one of the inner end and the outer end along the span line ; and the first portion has a first lateral thickness, characterised in that : the second portion has a second lateral thickness that is less than the first lateral thickness; and at least one of the first side section or the second side section overlaps and is connected to the first portion and the second portion. an airfoil extending along a camber line between a leading edge and a trailing edge , the airfoil extending along a span line between an inner end and an outer end , the airfoil extending laterally between a first side and a second side , and the airfoil including a base section , a first side section and a second side section ; the base section defining at least a portion of the trailing edge of the airfoil , the base section laterally between and connected to the first side section and the second side section , and the base section comprising metal material; the first side section defining at least a portion of the first side of the airfoil , and the first side section comprising first non-metal material; and the second side section defining at least a portion of the second side of the airfoil , and the second side section comprising second non-metal material, characterized in that the base section has a first portion and a second portion aligned along the camber line ; the first portion is between the second portion and one of the inner end and the outer end along the span line ; and the first portion has a first lateral thickness, characterised in that : the second portion has a second lateral thickness that is less than the first lateral thickness; and at least one of the first side section or the second side section overlaps and is connected to the first portion and the second portion. the second portion has a second lateral thickness that is less than the first lateral thickness; and at least one of the first side section or the second side section overlaps and is connected to the first portion and the second portion.
Method for producing a spunbonded nonwoven from continuous filaments of thermoplastic material, wherein the continuous filaments are produced as multicomponent filaments, in particular as bicomponent filaments having a core-sheath configuration, wherein the filaments contain at least one lubricant, wherein the fraction of the lubricant - relative to the entire filament - is 250 to 5500 ppm, preferably 500 to 5000 ppm, more preferably 700 to 3000 ppm and very preferably 700 to 2500 ppm, wherein the lubricant is present in the core component in an amount of at least 90 wt.%, preferably at least 95 wt.%, wherein the degree of hardness of the surface of the spunbonded nonwoven is measured, wherein the TS7 value of a TSA measuring device (Emtec, Leipzig, Germany), i.e. the loudness at the peak maximum of the loudness/frequency spectrum at about 6550 Hz is used as the degree of hardness of the spunbonded nonwoven at the nonwoven surface, wherein the surface of the spunbonded nonwoven in the time interval up to 150 minutes after production of the spunbonded nonwoven has a higher degree of hardness, in particular a degree of hardness more than 3% higher than a comparative spunbonded nonwoven having a homogeneous distribution of the lubricant relative to the filament cross-section produced under otherwise the same conditions and wherein the surface of the spunbonded nonwoven after 96 hours has the same degree of hardness or approximately the same degree of hardness as the comparative spunbonded nonwoven, wherein the degrees of hardness then preferably differ by a maximum of 3%. wherein the degree of hardness of the surface of the spunbonded nonwoven is measured, wherein the TS7 value of a TSA measuring device (Emtec, Leipzig, Germany), i.e. the loudness at the peak maximum of the loudness/frequency spectrum at about 6550 Hz is used as the degree of hardness of the spunbonded nonwoven at the nonwoven surface, wherein the surface of the spunbonded nonwoven in the time interval up to 150 minutes after production of the spunbonded nonwoven has a higher degree of hardness, in particular a degree of hardness more than 3% higher than a comparative spunbonded nonwoven having a homogeneous distribution of the lubricant relative to the filament cross-section produced under otherwise the same conditions and wherein the surface of the spunbonded nonwoven after 96 hours has the same degree of hardness or approximately the same degree of hardness as the comparative spunbonded nonwoven, wherein the degrees of hardness then preferably differ by a maximum of 3%.
A dual purpose heat exchanger comprising a central heating fluid circuit and a hot utility water circuit, and containing a fired main heat exchanger and a coil enclosed by an external jacket equipped with an inlet stub pipe for fluid heating the utility water in the coil as well as an inlet stub pipe and outlet stub pipe for utility water, the flow chamber of fluid heating the utility water in the coil is connected with the flow chamber of heated fluid in the main exchanger, characterised in that the main heat exchanger jacket is of a conical shape with the diameter increasing towards the top, inside which there is a set of vertical tube elements 13 fixed at their ends on both sides to tube-sheets, and the coil is wound on the jacket of the main heat exchanger below a combustion chamber 10 located over the top tube-sheet, the external jacket enclosing the coil is tightly connected with the main exchanger jacket , forming a flow chamber of fluid heating the utility water in the coil , whose chamber is connected with the flow chamber of heated fluid in the main exchanger using at least one overflow hole located in the bottom section of the main heat exchanger jacket , and the inlet stub pipe of utility water and an inlet stub pipe of fluid to the main heat exchanger is located within the bottom section of the external jacket enclosing the coil , the outlet stub pipe of utility water and the inlet stub pipe of fluid heating the utility water in coil is located within the top section of the external jacket enclosing the coil , and an outlet stub pipe of hot fluid of the main heat exchanger is located within the top section of the main heat exchanger jacket , however the inlet stub pipe and outlet stub pipe of utility water is connected with the coil external jacket using welded, stainless sleeve with a thread, ring and nut, and an uniform indents are made in the coil external jacket in three vertical rows, which set the position of the coil turns, or a tape is passed through coil turns in alternating arrangement, which sets their location, or the coil turns are placed on a separating comb, and optionally a cavity for coil is formed in the main heat exchanger jacket .
A method for producing a semiconductor body comprising the following steps: - providing a semiconductor wafer having at least two chip regions and at least one separating region , which is arranged between the chip regions , wherein the semiconductor wafer comprises a layer sequence, the outermost layer of which has, at least within the separating region a transmissive layer that is transmissive to electromagnetic radiation, - removing the transmissive layer within the separating region , and - separating the chip regions along the separating regions by means of a laser. characterized in that - the transmissive layer is removed within the separating region by means of an etching process during the removal of the transmissive layer - providing a semiconductor wafer having at least two chip regions and at least one separating region , which is arranged between the chip regions , wherein the semiconductor wafer comprises a layer sequence, the outermost layer of which has, at least within the separating region a transmissive layer that is transmissive to electromagnetic radiation, - removing the transmissive layer within the separating region , and - separating the chip regions along the separating regions by means of a laser. - the transmissive layer is removed within the separating region by means of an etching process during the removal of the transmissive layer
An autonomous mobile cleaning robot (100; 1300) comprising: an outer shell (102; 1302) comprising a first feature connected to the outer shell; and a bumper (104; 1304) movably connected to the outer shell, the bumper defining an inner surface, and the bumper comprising: a second feature connected to the inner surface, the second feature engageable with the first feature to cause the bumper to move in a horizontal direction with respect to the outer shell in response to a vertical force applied to the bumper. an outer shell (102; 1302) comprising a first feature connected to the outer shell; and a bumper (104; 1304) movably connected to the outer shell, the bumper defining an inner surface, and the bumper comprising: a second feature connected to the inner surface, the second feature engageable with the first feature to cause the bumper to move in a horizontal direction with respect to the outer shell in response to a vertical force applied to the bumper.
A method for preparing ethylene comprising: passing a feed stream containing C1 and C2 hydrocarbon compounds through a first heat exchanger and feeding the feed stream to a second gas-liquid separator ; feeding a part of a bottom discharge stream of the second gas-liquid separator to a demethanizer (D1), passing an overhead discharge stream of the second gas-liquid separator through a second heat exchanger , and feeding the overhead discharge stream of the second gas-liquid separator to a third gas-liquid separator ; feeding a bottom discharge stream of the third gas-liquid separator to the demethanizer (D1); feeding a bottom discharge stream of the demethanizer (D1) to a C2 separator (SP); feeding an overhead discharge stream of the C2 separator (SP) to a second compressor (P2); passing a part of a compressed discharge stream of the second compressor (P2) through the first heat exchanger and feeding the part of the compressed discharge stream of the second compressor (P2) passed through the first heat exchanger to the second compressor (P2) as a first circulation flow; passing a part of the compressed discharge stream of the second compressor (P2) through the second heat exchanger and feeding the part of the compressed discharge stream of the second compressor (P2) passed through the second heat exchanger to a first compressor (P1) as a second circulation flow; and feeding a compressed discharge stream of the first compressor (P1) to the second compressor (P2). passing a feed stream containing C1 and C2 hydrocarbon compounds through a first heat exchanger and feeding the feed stream to a second gas-liquid separator ; feeding a part of a bottom discharge stream of the second gas-liquid separator to a demethanizer (D1), passing an overhead discharge stream of the second gas-liquid separator through a second heat exchanger , and feeding the overhead discharge stream of the second gas-liquid separator to a third gas-liquid separator ; feeding a bottom discharge stream of the third gas-liquid separator to the demethanizer (D1); feeding a bottom discharge stream of the demethanizer (D1) to a C2 separator (SP); feeding an overhead discharge stream of the C2 separator (SP) to a second compressor (P2); passing a part of a compressed discharge stream of the second compressor (P2) through the first heat exchanger and feeding the part of the compressed discharge stream of the second compressor (P2) passed through the first heat exchanger to the second compressor (P2) as a first circulation flow; passing a part of the compressed discharge stream of the second compressor (P2) through the second heat exchanger and feeding the part of the compressed discharge stream of the second compressor (P2) passed through the second heat exchanger to a first compressor (P1) as a second circulation flow; and feeding a compressed discharge stream of the first compressor (P1) to the second compressor (P2).