mhurhangee/patent-ind-claim-en huggingface dataset:
A variable light emission modular lighting system , comprising at least one base element comprising a support structure and a lighting body , supported by the structure and provided with a plurality of elementary light sources defining respective modules of the system ; and a control unit operating on the elementary light sources ; wherein the control unit controls individually each elementary light source so as to selectively operate at least one operation parameter of each elementary light source ; the system being characterized in that the control unit is configured so as to switch on a plurality of elementary light sources in number and positions such as to provide a preset light intensity; and to vary over time the positions of the elementary light sources turned on continuously in a slow motion, so as to maintain the average light intensity emitted substantially constant, substantially equal to the preset light intensity with an approximate fluctuation of a few Kelvins, in the range of +10K to -10K.
A load-lifting device for mounting on a vehicle , comprising: a platform which can be moved from a lowered rest position into a raised working position and back again in order to receive a load, a linking lever which is pivotably supported on the platform and which is intended to be articulated to the vehicle by means of a linking end region , a support element which is fitted to the platform and which has a base end which is provided for support on a substrate , a drive element which is intended to move the support element from a rest position which is associated with the rest position of the platform into a working position in which the base end is supported on the substrate and the platform is raised into the working position , and a connection element which is connected, on the one hand, to the linking lever and, on the other hand, to the support element in order to control the rotation position of the linking lever and the pivot position of the platform in accordance with the support element . a platform which can be moved from a lowered rest position into a raised working position and back again in order to receive a load, a linking lever which is pivotably supported on the platform and which is intended to be articulated to the vehicle by means of a linking end region , a support element which is fitted to the platform and which has a base end which is provided for support on a substrate , a drive element which is intended to move the support element from a rest position which is associated with the rest position of the platform into a working position in which the base end is supported on the substrate and the platform is raised into the working position , and a connection element which is connected, on the one hand, to the linking lever and, on the other hand, to the support element in order to control the rotation position of the linking lever and the pivot position of the platform in accordance with the support element .
Agricultural field spraying device , having - a tank for storing liquid; - a suction region , which comprises one or more suction line sections and is designed to suck up liquid out of the tank ; and - an emptying device , which is designed to remove liquid remaining in the suction region from the suction region after a spraying operation is ended; characterized in that the emptying device has an emptying chamber , in which the liquid removed from the suction region collects and which is connected to a compressed air source , wherein the emptying chamber can be charged with compressed air via the connection to the compressed air source in order to remove the liquid from the emptying chamber and is arranged in such a manner that the liquid remaining back in the suction region flows pressurelessly into the emptying chamber , characterized by a pressure region , which comprises one or more discharge elements , wherein the one or more discharge elements are designed to discharge the liquid from the tank over an agricultural area, and wherein a conveying device in the form of a pump is arranged between the pressure region and the suction region , in that the emptying device has a safety valve which is designed to prevent the suction region being charged with positive pressure, in that the safety valve is in the form of a nonreturn valve. - a tank for storing liquid; - a suction region , which comprises one or more suction line sections and is designed to suck up liquid out of the tank ; and - an emptying device , which is designed to remove liquid remaining in the suction region from the suction region after a spraying operation is ended; characterized in that the emptying device has an emptying chamber , in which the liquid removed from the suction region collects and which is connected to a compressed air source , wherein the emptying chamber can be charged with compressed air via the connection to the compressed air source in order to remove the liquid from the emptying chamber and is arranged in such a manner that the liquid remaining back in the suction region flows pressurelessly into the emptying chamber , characterized by a pressure region , which comprises one or more discharge elements , wherein the one or more discharge elements are designed to discharge the liquid from the tank over an agricultural area, and wherein a conveying device in the form of a pump is arranged between the pressure region and the suction region , in that the emptying device has a safety valve which is designed to prevent the suction region being charged with positive pressure, in that the safety valve is in the form of a nonreturn valve.
Process for the preparation of a pulpy food product for patients with dysphagia with at least two food components, which are comminuted, after which they are filled into a container and thermally sterilised, characterised in that each food component is brought - in a separate comminution step (2a, b) - to a particle size of less than or equal to 400 μm (to a particle size of at least 40 mesh), in particular of less than or equal to 210 μm (at least 70 mesh), and a viscosity of 25 - 50 Pas, measured with a Brookfield Spindle F at a temperature of 20°C, after which the more easily oxidising food component is filled into the container before the less easily oxidising food component, and that, in order to increase the viscosity of the food components to 35 - 750 Pas, measured with a Brookfield Spindle F at a temperature of 20°C, the thermal sterilisation is carried out at a temperature of 115 - 142°C for a period of 40 - 70 minutes.
A device for transcatheter mitral valve replacement configured to be implanted into a mitral valve, comprising: a first replacement heart valve having a first atrial side and a first ventricular side; and a second replacement heart valve having a second atrial side and a second ventricular side; characterised in that the first and second replacement heart valves are connected on either their atrial or ventricular sides with a hinge . a first replacement heart valve having a first atrial side and a first ventricular side; and a second replacement heart valve having a second atrial side and a second ventricular side; characterised in that the first and second replacement heart valves are connected on either their atrial or ventricular sides with a hinge .
Cooling system for an induction hob , particularly for a built-in induction hob, comprising: at least one heat generating device connected to a heat sink provided with free-ends for dissipating heat from said heat generating device , - a blower module for generating an airflow path impinging said heat sink and assembled in a short path arrangement with said heat sink , at least one induction coil positioned above the heat sink , said heat sink defining a plane which is substantially perpendicular with respect to a direction of said airflow path generated by said blower module , characterized in that a main airflow path impinging the heat sink is further directed to cool down other components of the induction hob (I); wherein the blower module is configured to create said airflow path according to an axial direction of said blower module , said airflow path impinging said free-ends of said heat sink ; and further characterized by comprising an air deflector (AD), wherein the blower module is a radial fan , and wherein the radial fan is placed on a lateral side of the heat sink with at a predetermined lower offset (LO) respect to a heat sink lower base (LB), wherein air deflector (AD) is shaped to deflect a remaining portion of the airflow according to a direction (PP) which is substantially perpendicular, to said lower base (LB) of said heat sink . - a blower module for generating an airflow path impinging said heat sink and assembled in a short path arrangement with said heat sink , at least one induction coil positioned above the heat sink , said heat sink defining a plane which is substantially perpendicular with respect to a direction of said airflow path generated by said blower module , characterized in that a main airflow path impinging the heat sink is further directed to cool down other components of the induction hob (I); wherein the blower module is configured to create said airflow path according to an axial direction of said blower module , said airflow path impinging said free-ends of said heat sink ; and further characterized by comprising an air deflector (AD), wherein the blower module is a radial fan , and wherein the radial fan is placed on a lateral side of the heat sink with at a predetermined lower offset (LO) respect to a heat sink lower base (LB), wherein air deflector (AD) is shaped to deflect a remaining portion of the airflow according to a direction (PP) which is substantially perpendicular, to said lower base (LB) of said heat sink .
An electrical cable comprising: a conductor assembly having a first conductor , a second conductor , and an insulator structure surrounding the first conductor and the second conductor, the insulator structure having an outer surface , the first and second conductors adapted to carry differential signals; and a cable shield wrapped around the conductor assembly and engaging the outer surface of the insulator structure, the cable shield having an inner edge and a flap covering the inner edge, the cable shield forming a void at the inner edge, the void being located closer to the first conductor than the second conductor, wherein the void has a volume creating a decrease in capacitance of the first conductor compared to the second conductor , characterized in that the first conductor has a first diameter and the second conductor has a second diameter , the first diameter being less than the second diameter, wherein the first diameter is selected to balance skew effects of the void on the first conductor compared to the second conductor along the length of the electrical cable, the diameter difference between the first diameter and the second diameter creating an increase in inductance in the first conductor compared to the second conductor, wherein the increase in inductance is proportional to the decrease in capacitance to balance the skew effects. a conductor assembly having a first conductor , a second conductor , and an insulator structure surrounding the first conductor and the second conductor, the insulator structure having an outer surface , the first and second conductors adapted to carry differential signals; and a cable shield wrapped around the conductor assembly and engaging the outer surface of the insulator structure, the cable shield having an inner edge and a flap covering the inner edge, the cable shield forming a void at the inner edge, the void being located closer to the first conductor than the second conductor, wherein the void has a volume creating a decrease in capacitance of the first conductor compared to the second conductor , characterized in that the first conductor has a first diameter and the second conductor has a second diameter , the first diameter being less than the second diameter, wherein the first diameter is selected to balance skew effects of the void on the first conductor compared to the second conductor along the length of the electrical cable, the diameter difference between the first diameter and the second diameter creating an increase in inductance in the first conductor compared to the second conductor, wherein the increase in inductance is proportional to the decrease in capacitance to balance the skew effects.
A method of forming a particle, the method comprising: promoting a seed particle in the aqueous suspension to form the dispersed phase, the seed particle including a hydrophobic seed polymer including a styrenic polymer, the promoted seed particle forming a disperse phase within a suspension; mixing hydrophilic monomer having a hydrophobic protection group with suspension, the hydrophilic monomer residing in the disperse phase, the hydrophilic monomer is a radically polymerizable vinyl-based monomer including an acrylate, an acrylamide, a vinyl alcohol, a vinyl acetate, acrylamido-methyl-propanesulfonic acid, or a combination thereof; polymerizing a plurality of mer units of the hydrophilic monomer having a hydrophobic protection group, thereby forming a polymeric particle including a plurality of the hydrophobic protection groups; converting the polymeric particle to a hydrophilic particle; and extracting the seed polymer after converting the polymeric particle. promoting a seed particle in the aqueous suspension to form the dispersed phase, the seed particle including a hydrophobic seed polymer including a styrenic polymer, the promoted seed particle forming a disperse phase within a suspension; mixing hydrophilic monomer having a hydrophobic protection group with suspension, the hydrophilic monomer residing in the disperse phase, the hydrophilic monomer is a radically polymerizable vinyl-based monomer including an acrylate, an acrylamide, a vinyl alcohol, a vinyl acetate, acrylamido-methyl-propanesulfonic acid, or a combination thereof; polymerizing a plurality of mer units of the hydrophilic monomer having a hydrophobic protection group, thereby forming a polymeric particle including a plurality of the hydrophobic protection groups; converting the polymeric particle to a hydrophilic particle; and extracting the seed polymer after converting the polymeric particle.
Motion control system for a seafaring vessel , comprising one or more sensors generating current sea condition data; a storage having historical sea condition data stored thereon; at least one control system ; and a computer having: an analyzer receiving the current sea condition data and the historical sea condition data and determining a not yet existing predicted sea condition anticipated to be encountered by the vessel in the future based at least in part on both the current sea condition data and the historical sea condition data; a calculator calculating one or more commands in preparation for the predicted sea condition determined by the analyzer ; and an interface communicating the one or more commands to the at least one control system ; wherein the at least one control system automatically implements at least one of the one or more commands calculated by the calculator in response to the predicted sea condition determined by the analyzer ; the system being characterized in that the one or more sensors are configured to measure sea conditions in a seafaring vessel's near field and a seafaring vessel's far field when the vessel is underway to characterize sea conditions such that the sea condition data relates to sea conditions in both the far field and near field , the far field being defined as four or more wavelengths from the vessel , the near field being between the vessel and the far field , wherein the system is configured to determine the sea conditions in the seafaring vessel's far field. an analyzer receiving the current sea condition data and the historical sea condition data and determining a not yet existing predicted sea condition anticipated to be encountered by the vessel in the future based at least in part on both the current sea condition data and the historical sea condition data; a calculator calculating one or more commands in preparation for the predicted sea condition determined by the analyzer ; and an interface communicating the one or more commands to the at least one control system ;
Method for the deterministic autoconfiguration of a device in the course of connection to an apparatus with the steps: - in the event of a first-time connection of the device to the apparatus , generation of a device-specific configuration data structure (KDS), wherein the said configuration data structure (KDS) identifies the configuration data of the device and the apparatus , which configuration data have been determined in the course of the first-time connection of the device to the apparatus , and storage of the configuration data structure (KDS) in the device and/or in the apparatus , and - in the event of a renewed connection of the device to the apparatus , determination of the first-time configuration data of the device and the apparatus by means of the configuration data structure (KDS), and setting up of the device and the apparatus in accordance with the first-time configuration data, wherein the configuration data structure (KDS) comprises the configuration data of the device and the apparatus . - in the event of a first-time connection of the device to the apparatus , generation of a device-specific configuration data structure (KDS), wherein the said configuration data structure (KDS) identifies the configuration data of the device and the apparatus , which configuration data have been determined in the course of the first-time connection of the device to the apparatus , and storage of the configuration data structure (KDS) in the device and/or in the apparatus , and - in the event of a renewed connection of the device to the apparatus , determination of the first-time configuration data of the device and the apparatus by means of the configuration data structure (KDS), and setting up of the device and the apparatus in accordance with the first-time configuration data, wherein the configuration data structure (KDS) comprises the configuration data of the device and the apparatus .
An automatically actuated nasal droplet delivery device for delivering a fluid as an ejected stream of droplets to the nasal passageways and sinus cavities of a subject, the device comprising: a housing ; a nosepiece positioned at an airflow exit of the device; an air inlet flow element positioned in the airflow at an airflow entrance of the device; a reservoir disposed within or in fluid communication with the housing for receiving a volume of fluid; an electronically actuated ejector mechanism in fluid communication with the reservoir and configured to generate the ejected stream of droplets; at least one differential pressure sensor positioned within the housing , the at least one differential pressure sensor configured to activate the ejector mechanism upon sensing a pre-determined pressure change within the nosepiece to thereby generate the ejected stream of droplets; the ejector mechanism comprising a piezoelectric actuator and an aperture plate, the aperture plate having a plurality of openings formed through its thickness and the piezoelectric actuator operable to oscillate the aperture plate at a frequency to thereby generate the ejected stream of droplets; wherein the housing , air inlet flow element , and nosepiece are configured to facilitate non-turbulent airflow across an exit side of the aperture plate and to provide sufficient non-turbulent airflow through the housing during use; and wherein the ejector mechanism is configured to generate the ejected stream of droplets wherein at least about 50% of the droplets have an average ejected droplet diameter of greater than about 10 microns. a housing ; a nosepiece positioned at an airflow exit of the device; an air inlet flow element positioned in the airflow at an airflow entrance of the device; a reservoir disposed within or in fluid communication with the housing for receiving a volume of fluid; an electronically actuated ejector mechanism in fluid communication with the reservoir and configured to generate the ejected stream of droplets; at least one differential pressure sensor positioned within the housing , the at least one differential pressure sensor configured to activate the ejector mechanism upon sensing a pre-determined pressure change within the nosepiece to thereby generate the ejected stream of droplets; the ejector mechanism comprising a piezoelectric actuator and an aperture plate, the aperture plate having a plurality of openings formed through its thickness and the piezoelectric actuator operable to oscillate the aperture plate at a frequency to thereby generate the ejected stream of droplets; wherein the housing , air inlet flow element , and nosepiece are configured to facilitate non-turbulent airflow across an exit side of the aperture plate and to provide sufficient non-turbulent airflow through the housing during use; and wherein the ejector mechanism is configured to generate the ejected stream of droplets wherein at least about 50% of the droplets have an average ejected droplet diameter of greater than about 10 microns.
An automated emergency arterial sheath placement device, comprising: a body including a handle; an arterial sheath placement head attached to said body, said arterial sheath placement head having a skin-facing outer wall and comprising a non-invasive artery locator and an arterial sheath insertion device positioned in said skin-facing outer wall , said arterial sheath placement head further comprising an upper body connected in a fixed position to a lower body , wherein said arterial sheath insertion device is positioned within said upper body , and wherein said artery locator is positioned within said lower body ; and a manually operable actuator ; wherein said arterial sheath insertion device is positioned with respect to said artery locator so as to position said arterial sheath insertion device over an artery that has been located by said artery locator, and wherein said automated emergency arterial sheath placement device is configured to cause said arterial sheath insertion device to install an arterial sheath in a patient's artery upon sequential activation of said actuator characterized in that said upper body is detachably connected to said lower body. a body including a handle; an arterial sheath placement head attached to said body, said arterial sheath placement head having a skin-facing outer wall and comprising a non-invasive artery locator and an arterial sheath insertion device positioned in said skin-facing outer wall , said arterial sheath placement head further comprising an upper body connected in a fixed position to a lower body , wherein said arterial sheath insertion device is positioned within said upper body , and wherein said artery locator is positioned within said lower body ; and a manually operable actuator ; wherein said arterial sheath insertion device is positioned with respect to said artery locator so as to position said arterial sheath insertion device over an artery that has been located by said artery locator, and wherein said automated emergency arterial sheath placement device is configured to cause said arterial sheath insertion device to install an arterial sheath in a patient's artery upon sequential activation of said actuator characterized in that said upper body is detachably connected to said lower body.