mhurhangee/patent-ind-claim-en huggingface dataset:
Direct flame boiler , wherein it comprises at least: - a first body which extends along a substantially vertical reference axis (X) and at least partially encloses a first internal cavity suitable for receiving a liquid solution; - a second body which, with reference to said substantially vertical axis (X), is arranged below said first body and at least partially encloses a second internal cavity in which there is placed a burner capable of generating heat to keep the liquid solution in the first internal cavity boiling; - a third body which is arranged for at least a part thereof around the second body , said second and third bodies delimiting between them a third internal cavity which is arranged, for at least a part thereof, laterally around said second cavity ; and - a fourth body which is interposed between said first body and said second body and is at least integrally connected to them, said fourth body being configured so that hot fumes (Fc) produced by the burner flows through it flowing from said second internal cavity towards the outer surface of the first body and characterized in that the fourth body is configured so that flows of said liquid solution flow through it flowing from said first internal cavity into said third internal cavity , wherein said fourth body comprises one or more first through holes which extend in a direction transverse to said substantially vertical reference axis (X) and are configured to put said first internal cavity in communication with said third internal cavity . - a first body which extends along a substantially vertical reference axis (X) and at least partially encloses a first internal cavity suitable for receiving a liquid solution; - a second body which, with reference to said substantially vertical axis (X), is arranged below said first body and at least partially encloses a second internal cavity in which there is placed a burner capable of generating heat to keep the liquid solution in the first internal cavity boiling; - a third body which is arranged for at least a part thereof around the second body , said second and third bodies delimiting between them a third internal cavity which is arranged, for at least a part thereof, laterally around said second cavity ; and - a fourth body which is interposed between said first body and said second body and is at least integrally connected to them, said fourth body being configured so that hot fumes (Fc) produced by the burner flows through it flowing from said second internal cavity towards the outer surface of the first body and characterized in that the fourth body is configured so that flows of said liquid solution flow through it flowing from said first internal cavity into said third internal cavity , wherein said fourth body comprises one or more first through holes which extend in a direction transverse to said substantially vertical reference axis (X) and are configured to put said first internal cavity in communication with said third internal cavity .
A modular storage and order picking device , comprising: - a storage unit having a plurality of through-flow channels for receiving a plurality of storage containers in each through-flow channel for storing articles, wherein said through-flow channels are arranged one above the other transversely to the longitudinal direction of said storage unit and in a manner inclined relative to the horizontal, - an order picking unit arranged on one or both end faces of said storage unit and having one or more dispensing spaces for removing articles and one or more target spaces for collating articles relating to an order or partial order, - a conveyor unit for conveying storage containers between said storage unit and said order picking unit , wherein said conveyor unit has conveyor means extending on both sides along the longitudinal axis of the storage unit ; - wherein said storage unit is formed as a self-supporting frame structure , on which said order picking unit and said conveyor unit are mounted so as to be functionally connected to one another by means of mechanical and electrical plug-in connections that can be disconnected and reconnected. - a storage unit having a plurality of through-flow channels for receiving a plurality of storage containers in each through-flow channel for storing articles, wherein said through-flow channels are arranged one above the other transversely to the longitudinal direction of said storage unit and in a manner inclined relative to the horizontal, - an order picking unit arranged on one or both end faces of said storage unit and having one or more dispensing spaces for removing articles and one or more target spaces for collating articles relating to an order or partial order, - a conveyor unit for conveying storage containers between said storage unit and said order picking unit , wherein said conveyor unit has conveyor means extending on both sides along the longitudinal axis of the storage unit ; - wherein said storage unit is formed as a self-supporting frame structure , on which said order picking unit and said conveyor unit are mounted so as to be functionally connected to one another by means of mechanical and electrical plug-in connections that can be disconnected and reconnected.
High pressure cleaning appliance with a pump for conveying a cleaning liquid, wherein the pump comprises at least one pump chamber into which a reciprocable piston dips and which is connected to a suction connection by way of an inlet valve and a suction conduit and is connected to a pressure connection by way of an outlet valve and a pressure conduit , wherein a check valve is arranged in the pressure conduit , and wherein the pump comprises an overflow valve , which is arranged in an overflow conduit connecting the pressure conduit upstream of the check valve to the suction conduit , and comprises an overflow valve body , the position of which relative to an associated overflow valve seat is controllable by means of an actuator in dependence on the pressure of the cleaning liquid prevailing in the pressure conduit , and wherein the high pressure cleaning appliance comprises a pressure relief valve , by means of which a flow path from the region of the pressure conduit downstream from the check valve to the suction conduit is unblockable when a predetermined limit pressure is exceeded, characterized in that the flow path comprises a control line , by way of which the actuator of the overflow valve can be acted upon with the pressure prevailing in the pressure conduit downstream from the check valve .
An injection device , the injection device comprising: a housing containing a first optical sensor and a second optical sensor spaced circumferentially relative to a dialling sleeve of the injection device, wherein the optical sensors are arranged to detect optical features on a rotatable surface of the dialling sleeve, wherein the optical features comprise black and white regions, and wherein each optical sensor has a first state when it detects a white region and a second state when it detects a black region; and a processor arrangement configured to: detect a change in the state of each of the optical sensors; and determine a direction of rotation of the rotatable surface of the injection device from the detected state changes, wherein the rotatable surface of the dialling sleeve is arranged to move rotationally and axially with respect to the housing. a housing containing a first optical sensor and a second optical sensor spaced circumferentially relative to a dialling sleeve of the injection device, wherein the optical sensors are arranged to detect optical features on a rotatable surface of the dialling sleeve, wherein the optical features comprise black and white regions, and wherein each optical sensor has a first state when it detects a white region and a second state when it detects a black region; and a processor arrangement configured to: detect a change in the state of each of the optical sensors; and determine a direction of rotation of the rotatable surface of the injection device from the detected state changes, detect a change in the state of each of the optical sensors; and determine a direction of rotation of the rotatable surface of the injection device from the detected state changes, wherein the rotatable surface of the dialling sleeve is arranged to move rotationally and axially with respect to the housing.
Electronic frame including a front element intended to house at least one lens, and at least one temple having an end joined to said front element by a hinge having a hinge axis (Z), said electronic frame including a conductor , which is able to curve, that extends between the front element and said at least one temple in the vicinity of said hinge , said frame includes at least one body placed between the front element and one end of said at least one temple , said body being movably mounted in said electronic frame and having a through aperture apt to let said conductor pass, and characterized in that said body is of substantially cylindrical shape and includes first stopping elements able to make contact with second stopping elements with which said end of said at least one temple is provided, said first and second stopping elements ensuring the rotation of said body about said hinge axis (Z), and in that the first stopping elements comprise two stops , protruding from an upper or lower surface of the substantially cylindrical body , one of the stops being located in the vicinity of the lower portion of the end of the through aperture , and the other of the stops being located in the vicinity of the upper portion of the end of the through aperture , and in that the second stopping elements comprise two protruding stops , located on either side of the end of the duct of the temple . said frame includes at least one body placed between the front element and one end of said at least one temple , said body being movably mounted in said electronic frame and having a through aperture apt to let said conductor pass, and characterized in that said body is of substantially cylindrical shape and includes first stopping elements able to make contact with second stopping elements with which said end of said at least one temple is provided, said first and second stopping elements ensuring the rotation of said body about said hinge axis (Z), and in that the first stopping elements comprise two stops , protruding from an upper or lower surface of the substantially cylindrical body , one of the stops being located in the vicinity of the lower portion of the end of the through aperture , and the other of the stops being located in the vicinity of the upper portion of the end of the through aperture , and in that the second stopping elements comprise two protruding stops , located on either side of the end of the duct of the temple .
A negative pressure wound dressing for covering and protecting a wound, the dressing comprising: a wound contact layer , the wound contact layer having a first surface and a second surface, the wound contact layer further having a peripheral region and a central region , wherein the first surface of the wound contact layer contacts the wound when the dressing is adhered to skin adjacent the wound; a pressure dispersion layer located between an outer cover layer and a plurality of layers of absorbent material (130a-h), the pressure dispersion layer being arranged to distribute negative pressure laterally across the pressure dispersion layer, wherein the pressure dispersion layer is gas, liquid and moisture-vapour permeable and has a peripheral region and a central region , wherein the plurality of layers of absorbent material (130a-h) are disposed between the second surface of the wound contact layer and the pressure dispersion layer; and, an envelope formed by joining the peripheral region of the pressure dispersion layer with the peripheral region of the second surface of the wound contact layer, the plurality of layers of absorbent material being disposed substantially within an interior cavity of the envelope, wherein the pressure dispersion layer is formed from foam. a wound contact layer , the wound contact layer having a first surface and a second surface, the wound contact layer further having a peripheral region and a central region , wherein the first surface of the wound contact layer contacts the wound when the dressing is adhered to skin adjacent the wound; a pressure dispersion layer located between an outer cover layer and a plurality of layers of absorbent material (130a-h), the pressure dispersion layer being arranged to distribute negative pressure laterally across the pressure dispersion layer, wherein the pressure dispersion layer is gas, liquid and moisture-vapour permeable and has a peripheral region and a central region , wherein the plurality of layers of absorbent material (130a-h) are disposed between the second surface of the wound contact layer and the pressure dispersion layer; and, an envelope formed by joining the peripheral region of the pressure dispersion layer with the peripheral region of the second surface of the wound contact layer, the plurality of layers of absorbent material being disposed substantially within an interior cavity of the envelope, wherein the pressure dispersion layer is formed from foam.
Derivatives of dimer fatty acids obtainable by the process comprising the following steps: i) dimerization of fatty acids feedstock, whose oleic acid content is more than 80 wt% based on weight of fatty acids contained in the feedstock, by heating in the presence of a clay catalyst; ii) separation of the monomer fatty acids from the dimer fatty acids formed during step i); iii) derivatization of dimer fatty acids to produce dimer fatty esters, amides, alcohols or alkanes; wherein the derivatization step is an esterification, an amidification, a reduction or a decarboxylation reaction of the carboxylic functions of dimer fatty acids, wherein the dimerizing step is followed by an additional step of treatment with an inorganic acid ; and, wherein the fatty acids feedstock is fatty acids obtained from high oleic sunflower oil. i) dimerization of fatty acids feedstock, whose oleic acid content is more than 80 wt% based on weight of fatty acids contained in the feedstock, by heating in the presence of a clay catalyst; ii) separation of the monomer fatty acids from the dimer fatty acids formed during step i); iii) derivatization of dimer fatty acids to produce dimer fatty esters, amides, alcohols or alkanes; wherein the derivatization step is an esterification, an amidification, a reduction or a decarboxylation reaction of the carboxylic functions of dimer fatty acids, wherein the dimerizing step is followed by an additional step of treatment with an inorganic acid ; and, wherein the fatty acids feedstock is fatty acids obtained from high oleic sunflower oil.
An ink composition for screen printing comprising: (a) a rubber-forming component; (b) a crosslinking agent; (c) a main solvent that dissolves the rubber-forming component; and (d) a poor solvent that dissolves in the main solvent but does not dissolve in the rubber-forming component, wherein a viscosity (0.1/s) obtained with an E-type viscometer at a temperature of 25°C is 300 to 50000 Pa·s, a viscosity (10/s) obtained with the E-type viscometer at a temperature of 25°C is 50 to 1500 Pa·s, and a loss tangent (0.1 rad/s) obtained with the E-type viscometer at a temperature of 25°C is 10.0 to 20.0. (a) a rubber-forming component; (b) a crosslinking agent; (c) a main solvent that dissolves the rubber-forming component; and (d) a poor solvent that dissolves in the main solvent but does not dissolve in the rubber-forming component, wherein a viscosity (0.1/s) obtained with an E-type viscometer at a temperature of 25°C is 300 to 50000 Pa·s, a viscosity (10/s) obtained with the E-type viscometer at a temperature of 25°C is 50 to 1500 Pa·s, and a loss tangent (0.1 rad/s) obtained with the E-type viscometer at a temperature of 25°C is 10.0 to 20.0.
A method for utilizing low pressure vapor through supplementing enthalpy and pressure boost, characterized by comprising the following steps: 1) heating low pressure vapor into superheated vapor, the superheated vapor being at a temperature higher than that of a high temperature and rich in thermal energy saturated vapor at a target pressure; 2) when a material is heated by the high temperature and rich thermal energy saturated vapor in a material heater , the saturated vapor will be condensed and sharply shrink in volume to generate a strong suction force so that the superheated vapor obtained in step 1) is sucked for spraying liquid boost pressure (SLBP), and converted into pressure boosted and quantity increased saturated vapor, that is, the high temperature and rich in thermal energy saturated vapor, which is then fed into the material heater for heating the material to achieve the utilization or recycling. 1) heating low pressure vapor into superheated vapor, the superheated vapor being at a temperature higher than that of a high temperature and rich in thermal energy saturated vapor at a target pressure; 2) when a material is heated by the high temperature and rich thermal energy saturated vapor in a material heater , the saturated vapor will be condensed and sharply shrink in volume to generate a strong suction force so that the superheated vapor obtained in step 1) is sucked for spraying liquid boost pressure (SLBP), and converted into pressure boosted and quantity increased saturated vapor, that is, the high temperature and rich in thermal energy saturated vapor, which is then fed into the material heater for heating the material to achieve the utilization or recycling.
A sidelink node having a distributed processing architecture for wireless communications, the sidelink node comprising: a central unit configured to perform sidelink node functions; a plurality of distributed units comprising a first distributed unit and a second distributed unit, each distributed unit coupled to the central unit and controlled by the central unit, each distributed unit configured to perform a subset of the sidelink node functions; and a plurality of radio units comprising a first set of radio units coupled to and controlled by the first distribution unit and a second set of radio units coupled to and controlled by the second distribution unit, each radio unit configured for sidelink transmission and reception; in which the sidelink node comprises a road side unit, RSU, and/or a sidelink assistance node, SLAN that interfaces to a data network. a central unit configured to perform sidelink node functions; a plurality of distributed units comprising a first distributed unit and a second distributed unit, each distributed unit coupled to the central unit and controlled by the central unit, each distributed unit configured to perform a subset of the sidelink node functions; and a plurality of radio units comprising a first set of radio units coupled to and controlled by the first distribution unit and a second set of radio units coupled to and controlled by the second distribution unit, each radio unit configured for sidelink transmission and reception; in which the sidelink node comprises a road side unit, RSU, and/or a sidelink assistance node, SLAN that interfaces to a data network.
A vortex generator comprising: a flow surface arranged to lie in an air flow over the vortex generator , and characterised by : a bistable state member comprising a bistable laminate arranged to snap between two stable states and a thermal expansion member configured to act on the bistable laminate in dependence on a temperature variation to impart a mechanical displacement so as to move the bistable laminate between the two stable states and thereby adjust the orientation of the flow surface in response to a temperature change of the thermal expansion member.
A map invoking method, conducted by a combined robot (A), including a self-moving robot combined to a functional module, wherein, in an uncombined mode, the self-moving robot works without the functional module, and in the uncombined mode, the self-moving robot generates two-dimensional map information of a working surface by scanning the working surface during a traversing walk and three-dimensional map information by collecting spatial height information above the working surface and by overlaying said spatial height information to the two-dimensional map information; the method comprising: invoking three-dimensional map information; calculating a plane map with a height L from the ground according to a body height (L) of the combined robot (A) and three-dimensional map information; planning a walking path according to the plane map; and conducting a walking operation along the walking path; wherein the combined robot (A) further includes the functional module combined and connected on top of the self-moving robot ; and a storage unit configured to store two-dimensional map information and the three-dimensional map information of a working region. invoking three-dimensional map information; calculating a plane map with a height L from the ground according to a body height (L) of the combined robot (A) and three-dimensional map information; planning a walking path according to the plane map; and conducting a walking operation along the walking path; wherein the combined robot (A) further includes the functional module combined and connected on top of the self-moving robot ; and a storage unit configured to store two-dimensional map information and the three-dimensional map information of a working region.
A railway maintenance machine comprising: a chassis , the chassis being configured for movement along a railway ; an imaging device which faces downwardly towards the railway and which is configured to acquire images of the railway ; an injection device that is associated with the imaging device and that is configured to fill spike holes in a railroad tie ; and a controller that is coupled to the imaging device and the injection device , the controller including: a spike hole detecting module including instructions that, when executed, compare an image captured by the imaging device to a database of images of spike holes; and an execution module including instructions that, when executed, automatically move the injection device into alignment with a detected spike hole and cause the injection device to inject a chemical solution into the spike hole to fill the spike hole . a chassis , the chassis being configured for movement along a railway ; an imaging device which faces downwardly towards the railway and which is configured to acquire images of the railway ; an injection device that is associated with the imaging device and that is configured to fill spike holes in a railroad tie ; and a controller that is coupled to the imaging device and the injection device , the controller including: a spike hole detecting module including instructions that, when executed, compare an image captured by the imaging device to a database of images of spike holes; and an execution module including instructions that, when executed, automatically move the injection device into alignment with a detected spike hole and cause the injection device to inject a chemical solution into the spike hole to fill the spike hole . a spike hole detecting module including instructions that, when executed, compare an image captured by the imaging device to a database of images of spike holes; and an execution module including instructions that, when executed, automatically move the injection device into alignment with a detected spike hole and cause the injection device to inject a chemical solution into the spike hole to fill the spike hole .