mhurhangee/patent-ind-claim-en huggingface dataset:
Support structure for an optical reflecting telescope comprising - a beam inlet where beams enter the support structure, - a primary support for a primary mirror , - a secondary support for a secondary mirror , - at least three struts which extend between the primary support and the secondary support , and - a beam outlet where the beams leave the support structure, wherein the support structure has the contour of a single shell hyperboloid , the primary support , the secondary support and the struts are configured so that they support the primary mirror and the secondary mirror so that a z-shaped beam path is provided between the beam inlet , the primary mirror , the secondary mirror and the beam outlet , and wherein all struts which extend between the primary support and the secondary support have the same length. - a beam inlet where beams enter the support structure, - a primary support for a primary mirror , - a secondary support for a secondary mirror , - at least three struts which extend between the primary support and the secondary support , and - a beam outlet where the beams leave the support structure, wherein the support structure has the contour of a single shell hyperboloid , the primary support , the secondary support and the struts are configured so that they support the primary mirror and the secondary mirror so that a z-shaped beam path is provided between the beam inlet , the primary mirror , the secondary mirror and the beam outlet , and wherein all struts which extend between the primary support and the secondary support have the same length.
A pallet truck (P) comprising: an operator handle ; and a non-contact switch device comprising a magnet and a reed switch , wherein the non-contact switch device has on and off positions that are achievable by the presence or absence of magnetic induction between the magnet and the reed switch, wherein the reed switch and magnet of the non-contact switch device are in a spaced apart position and the non-contact switch device is in the off position when a shielding member is located between the magnet and the reed switch, and is in the on position when the shielding member is not located between the magnet and the reed switch, wherein the non-contact switch device is in the off position with the shielding member located between the magnet and the reed switch when the operator handle is in a generally vertical position, and wherein the shielding member has more than one extensions that act as a shield. an operator handle ; and a non-contact switch device comprising a magnet and a reed switch , wherein the non-contact switch device has on and off positions that are achievable by the presence or absence of magnetic induction between the magnet and the reed switch, wherein the reed switch and magnet of the non-contact switch device are in a spaced apart position and the non-contact switch device is in the off position when a shielding member is located between the magnet and the reed switch, and is in the on position when the shielding member is not located between the magnet and the reed switch, wherein the non-contact switch device is in the off position with the shielding member located between the magnet and the reed switch when the operator handle is in a generally vertical position, and wherein the shielding member has more than one extensions that act as a shield.
An evaporative condenser comprising at least one heat exchanger in which a coolant circulates, and at least one coolant leak detection sensor, the evaporative condenser being an adiabatic evaporative condenser comprising an air humidification device comprising at least one medium mounted upstream of the heat exchanger , a humidification fluid sprinkling system configured to humidify said medium and a system for recovering the humidification fluid after having passed through the medium , characterised in that it comprises a system for neutralising coolant leaks outside the heat exchanger configured to spray a neutralising fluid on at least one lateral side of the heat exchanger when a coolant leak is detected by the detection sensor, the leak neutralisation system comprising a system for collecting a leaking fluid after spraying, said leaking fluid containing the coolant escaped from the heat exchanger and the neutralising fluid sprayed by the nozzles of the supply ducts , and in that the system for collecting a leaking fluid comprises a circulation chute extending between a lower end of the heat exchanger and the system for recovering the humidification fluid originating from the medium .
An active/passive automotive fuse module comprising: an electrically insulating base ; a fuse plate comprising: a bus bar portion disposed on a top surface of the base and above a projectile cavity formed in the base ; a fusible portion electrically connected to the bus bar portion and adapted to open when an amount of current flowing through the fuse plate exceeds a current rating of the active/passive automotive fuse module ; and a pyrotechnic interrupter (PI) disposed atop the base and including a projectile positioned above the bus bar portion , the PI configured to drive the projectile through the bus bar portion upon actuation by a controller upon the occurrence of a predetermined event, of a pyrotechnic initiator , causing the pyrotechnic initiator to be detonated and forcing the projectile to sever the bus bar portion , characterised in that the fusible portion extends perpendicularly from the bus bar portion . an electrically insulating base ; a fuse plate comprising: a bus bar portion disposed on a top surface of the base and above a projectile cavity formed in the base ; a fusible portion electrically connected to the bus bar portion and adapted to open when an amount of current flowing through the fuse plate exceeds a current rating of the active/passive automotive fuse module ; and a pyrotechnic interrupter (PI) disposed atop the base and including a projectile positioned above the bus bar portion , the PI configured to drive the projectile through the bus bar portion upon actuation by a controller upon the occurrence of a predetermined event, of a pyrotechnic initiator , causing the pyrotechnic initiator to be detonated and forcing the projectile to sever the bus bar portion , characterised in that the fusible portion extends perpendicularly from the bus bar portion . a bus bar portion disposed on a top surface of the base and above a projectile cavity formed in the base ; a fusible portion electrically connected to the bus bar portion and adapted to open when an amount of current flowing through the fuse plate exceeds a current rating of the active/passive automotive fuse module ; and a pyrotechnic interrupter (PI) disposed atop the base and including a projectile positioned above the bus bar portion , the PI configured to drive the projectile through the bus bar portion upon actuation by a controller upon the occurrence of a predetermined event, of a pyrotechnic initiator , causing the pyrotechnic initiator to be detonated and forcing the projectile to sever the bus bar portion , characterised in that the fusible portion extends perpendicularly from the bus bar portion .
An aqueous dispersion comprising dispersed particles of an acrylic copolymer having a volume average particle size diameter (d50) of from 1 to 50 μm (microns), wherein the aqueous dispersion further comprises (i) an acrylic copolymer dispersant having an alkaline solubility higher than 50 wt.%, and being present in the dispersion in an amount of from 10 to 35% by weight, relative to the total amount of monomers used to prepare the acrylic copolymer of the dispersed polymeric particles; and (ii) decomposition products of an oil-soluble organic initiator, whereby the volume average particle size diameter and the alkaline solubility are determined according to the methods as described in this specification. (i) an acrylic copolymer dispersant having an alkaline solubility higher than 50 wt.%, and being present in the dispersion in an amount of from 10 to 35% by weight, relative to the total amount of monomers used to prepare the acrylic copolymer of the dispersed polymeric particles; and (ii) decomposition products of an oil-soluble organic initiator,
An apparatus comprising: a disposable appliance that includes: a first strip of material containing a first plurality of electrodes and a second strip of material containing a second plurality of electrodes configured to apply microcurrent stimulation to a patient, wherein each electrode is no larger than about 36 mm 2 , and wherein the first strip is configured to place the first plurality of electrodes on an upper eyelid and the second strip is configured to place the second plurality of electrodes on a lower eyelid of the patient's skin, and wherein each one of the first and second plurality of electrodes is configured to be individually activated at a time for microcurrent stimulation without activation of any other ones of the first and second plurality of electrodes during that time.
A method for treatment of a ballast track by means of track maintenance machine which comprises a lifting unit having gripping rollers for gripping a track grid formed of rails and sleepers and lifting drives for lifting the track grid , a control device for controlling the lifting unit and a measuring system for comparing to a target position of the track , wherein the lifting unit is set in vibration by means of a vibration exciter and the vibration is transmitted to the track grid , characterized in that by means of an adjustment device of the vibration exciter a setting of an impact force acting by the lifting unit on the track grid takes place and that the lifting unit is controlled by means of the control device in such a way that, during a lifting operation, the lifting unit is set in vibration, and the track grid is first lifted to above the target position and subsequently lowered to the target position.
A curable composition comprising: A) a fluoroelastomer comprising copolymerized units of a nitrile group-containing cure site monomer; and B) a hydrazide of the general formula R 1 (C(O)) n NHNHR 2 , wherein n is 1 or 2; R 1 is NH 2 , NHNH 2 , NHR 3 , NR 3 2 , NHNHC(O)NH 2 , NHNHR 2 , or NHC(O)NHNH 2 ; R 2 is H, alkyl, aryl, heterocycle, CO 2 R 3 , C(O)R 3 , CH 2 R 4 or C(O)R 4 ; R 3 is alkyl, aryl, heterocycle, or CH 2 R 4 ; and R 4 is a fluoroalkyl group; or salts thereof; wherein the alkyl, aryl or heterocycle groups may not contain additional functional groups; or wherein said hydrazide has at least one oxygen atom replaced by a sulfur atom. A) a fluoroelastomer comprising copolymerized units of a nitrile group-containing cure site monomer; and B) a hydrazide of the general formula R 1 (C(O)) n NHNHR 2 , wherein n is 1 or 2; R 1 is NH 2 , NHNH 2 , NHR 3 , NR 3 2 , NHNHC(O)NH 2 , NHNHR 2 , or NHC(O)NHNH 2 ; R 2 is H, alkyl, aryl, heterocycle, CO 2 R 3 , C(O)R 3 , CH 2 R 4 or C(O)R 4 ; R 3 is alkyl, aryl, heterocycle, or CH 2 R 4 ; and R 4 is a fluoroalkyl group; or salts thereof; wherein the alkyl, aryl or heterocycle groups may not contain additional functional groups; or
A testing device for testing the mechanical integrity of a hollow breakable item , the testing device comprising: - a squeezable element to radially abut with an inner face of a sidewall portion of the breakable item , - a holder having an abutment to axially engage with a proximal end of the breakable item , - a sleeve extending in an axial direction that is parallel to a longitudinal extension of the sleeve and wherein the sleeve is insertable into the hollow breakable item to receive the sidewall portion of the breakable item , and wherein the sleeve has a first contact surface to axially engage with the squeezable element , - a plunger displaceable in the axial direction relative to the sleeve and having a second contact surface to axially engage with the squeezable element , - wherein the squeezable element is axially squeezable by a relative axial displacement of plunger and sleeve to increase the squeezable element's radial expansion and to apply radially directed pressure to the breakable item's sidewall portion and wherein - the sleeve and the plunger axially extend through the holder , the testing device being characterized in that - the abutment comprises an annular seal with a distally facing abutment surface and that - the plunger comprises an axial bore to apply a negative pressure to the interior volume of the breakable item . - a squeezable element to radially abut with an inner face of a sidewall portion of the breakable item , - a holder having an abutment to axially engage with a proximal end of the breakable item , - a sleeve extending in an axial direction that is parallel to a longitudinal extension of the sleeve and wherein the sleeve is insertable into the hollow breakable item to receive the sidewall portion of the breakable item , and wherein the sleeve has a first contact surface to axially engage with the squeezable element , - a plunger displaceable in the axial direction relative to the sleeve and having a second contact surface to axially engage with the squeezable element , - wherein the squeezable element is axially squeezable by a relative axial displacement of plunger and sleeve to increase the squeezable element's radial expansion and to apply radially directed pressure to the breakable item's sidewall portion and wherein - the sleeve and the plunger axially extend through the holder , the testing device being characterized in that - the abutment comprises an annular seal with a distally facing abutment surface and that - the plunger comprises an axial bore to apply a negative pressure to the interior volume of the breakable item .
A detecting system comprising: a sensor including: an antenna unit formed with a metal pattern; and a back surface reflector that faces the antenna unit via an isolation layer ; and a reader that transmits electromagnetic waves (Fa) to the sensor , receives reflected waves (Fr) from the sensor , and compares reflection characteristics of the sensor detected from the reflected waves (Fr) with reflection characteristics of the sensor stored in advance, to detect a state change in the sensor , wherein the sensor is formed such that one of a state of the antenna unit , a state of the isolation layer , or a state of the back surface reflector is linked to a state of a detection target, and wherein the reader detects a state change in the detection target, by comparing the reflection characteristics of the sensor detected from the reflected waves (Fr) with the reflection characteristics of the sensor stored in advance. a sensor including: an antenna unit formed with a metal pattern; and a back surface reflector that faces the antenna unit via an isolation layer ; and a reader that transmits electromagnetic waves (Fa) to the sensor , receives reflected waves (Fr) from the sensor , and compares reflection characteristics of the sensor detected from the reflected waves (Fr) with reflection characteristics of the sensor stored in advance, to detect a state change in the sensor , wherein the sensor is formed such that one of a state of the antenna unit , a state of the isolation layer , or a state of the back surface reflector is linked to a state of a detection target, and wherein the reader detects a state change in the detection target, by comparing the reflection characteristics of the sensor detected from the reflected waves (Fr) with the reflection characteristics of the sensor stored in advance.
A guiding device for a product conveyor, the guiding device comprising a support structure extending along a first predefined axis (X), said support structure comprising, on a first side thereof, first coupling means for coupling with a fixed structure of the conveyor and, on a second side thereof opposite to said first side , at least one sliding profile oriented along a respective second axis (Y) which is parallel to said first predefined axis (X), wherein said at least one sliding profile is manufactured as a separate component with respect to said support structure , wherein said at least one sliding profile is provided with second coupling means arranged for being coupled with at least one corresponding grooved guide which is formed on the second side of said support structure and is oriented along said second axis (Y), wherein said second coupling means are flexible coupling means arranged for the removable, interlocking or snap, coupling, of said at least one sliding profile on said support structure along a third axis (Z) which is perpendicular both to said first axis (X) and to said second axis (Y), wherein each sliding profile is provided with a rear surface, on which said second coupling means are formed, wherein each sliding profile is provided with a flat front surface opposite to said rear surface, on which the goods being transported crawl, wherein each sliding profile has a hardness which is lower than that of said support structure , wherein the second coupling means of each sliding profile consist of a pair of linear projections , integrally formed in a single piece with said sliding profile and extending over the entire length, along the second axis (Y), of said sliding profile , wherein said at least one grooved guide extends over the entire length, along the first axis (X), of the support structure , wherein each linear projection has a hook-shaped cross-section, with respective free ends diverging from each other, characterised in that said grooved guide being provided with at least one central rib , which is integrally formed in a single piece with said support structure and which also extends over the entire length, along said first axis (X), of said support structure , said central rib being arranged to abut against the rear surface of a respective sliding profile in the assembled configuration of said sliding profile on said support structure , wherein said central rib divides the respective grooved guide into two cavities each having an L-shaped cross-section, wherein each linear projection of the second coupling means is arranged to be inserted, by means of elastic deformation, into a corresponding cavity of the grooved guide so that the free ends of said linear projections abut against respective abutment walls of said cavities , and wherein said central rib keeps divaricating said linear projections , thus preventing said linear projections from getting closer to each other and preventing an accidental detachment, along said third axis (Z), of said sliding profile from the respective support structure .
Method for generating an emergency call for a vehicle , wherein the method has at least the following steps of: reading in a collision signal from an interface to at least one collision sensor of the vehicle and an environmental sensor signal from an interface to at least one environmental sensor of the vehicle , wherein the collision signal represents at least one collision characteristic of a collision between the vehicle and at least one collision object , wherein the environmental sensor signal represents an environment of the vehicle having the at least one collision object ; determining at least one object property of the at least one collision object using the environmental sensor signal ; generating an emergency call signal using the at least one collision characteristic and the at least one object property; and providing the emergency call signal for output to a transmission device of the vehicle . reading in a collision signal from an interface to at least one collision sensor of the vehicle and an environmental sensor signal from an interface to at least one environmental sensor of the vehicle , wherein the collision signal represents at least one collision characteristic of a collision between the vehicle and at least one collision object , wherein the environmental sensor signal represents an environment of the vehicle having the at least one collision object ; determining at least one object property of the at least one collision object using the environmental sensor signal ; generating an emergency call signal using the at least one collision characteristic and the at least one object property; and providing the emergency call signal for output to a transmission device of the vehicle .
A boiler having a device for selective non-catalytic reduction, the device comprising a lance carrying a hose having at least one nozzle , and further comprising a lance positioning system, the lance positioning system comprising a lance support beam and a chariot movable on the support beam , wherein the lance is connected to the chariot , the lance positioning system further comprising a drum for carrying the hose and a hose drive mechanism for driving the hose inside the lance , wherein the hose drive mechanism is supported by the chariot and comprises opposing wheels through which the hose passes through and a motor for driving the wheels, wherein the hose and the nozzle hang from the lance in an inner space of the boiler, whereby the nozzle position is vertically adjustable (F2) by driving the wheels of the hose drive mechanism , thereby pushing or pulling (F1) the hose through the lance . and further comprising a lance positioning system, the lance positioning system comprising a lance support beam and a chariot movable on the support beam , wherein the lance is connected to the chariot , the lance positioning system further comprising a drum for carrying the hose and a hose drive mechanism for driving the hose inside the lance , wherein the hose drive mechanism is supported by the chariot and comprises opposing wheels through which the hose passes through and a motor for driving the wheels, wherein the hose and the nozzle hang from the lance in an inner space of the boiler, whereby the nozzle position is vertically adjustable (F2) by driving the wheels of the hose drive mechanism , thereby pushing or pulling (F1) the hose through the lance .
A system comprising: an optical energy delivery unit comprising an optical energy exit port adapted to deliver optical energy to a volume of a subject, the optical energy delivery unit comprising a fiducial marker site ; an acoustic receiving unit comprising one or more acoustic receivers adapted to receive acoustic signals from the volume; the fiducial marker site configured to emit an acoustic response to be received by said acoustic receiving unit; a processing unit configured for processing signals received by said acoustic receiving unit, which processing comprises determining a relative position of said optical energy delivery unit respective to said acoustic receiving unit using the acoustic response emitted by the fiducial marker site; and, a display unit adapted to display an opto-acoustic image representing the volume. an optical energy delivery unit comprising an optical energy exit port adapted to deliver optical energy to a volume of a subject, the optical energy delivery unit comprising a fiducial marker site ; an acoustic receiving unit comprising one or more acoustic receivers adapted to receive acoustic signals from the volume; the fiducial marker site configured to emit an acoustic response to be received by said acoustic receiving unit; a processing unit configured for processing signals received by said acoustic receiving unit, which processing comprises determining a relative position of said optical energy delivery unit respective to said acoustic receiving unit using the acoustic response emitted by the fiducial marker site; and, a display unit adapted to display an opto-acoustic image representing the volume.