mhurhangee/patent-ind-claim-en huggingface dataset:
A display device comprising: a display panel including pixel regions (PX); an eyepiece ; a front quarter-wave plate between the display panel and the eyepiece ; a rear quarter-wave plate between the front quarter-wave plate and the eyepiece ; a front linear polarizer between the display panel and the front quarter-wave plate ; a reflective polarizing plate between the rear quarter-wave plate and the eyepiece ; and a barrier between the front quarter-wave plate and the rear quarter-wave plate , characterized in that the barrier includes reflecting regions (RA) and transmitting regions (TA) between the reflecting regions (RA), and the pixel regions (PX) overlap the transmitting regions (TA) of the barrier . a display panel including pixel regions (PX); an eyepiece ; a front quarter-wave plate between the display panel and the eyepiece ; a rear quarter-wave plate between the front quarter-wave plate and the eyepiece ; a front linear polarizer between the display panel and the front quarter-wave plate ; a reflective polarizing plate between the rear quarter-wave plate and the eyepiece ; and a barrier between the front quarter-wave plate and the rear quarter-wave plate , characterized in that the barrier includes reflecting regions (RA) and transmitting regions (TA) between the reflecting regions (RA), and the pixel regions (PX) overlap the transmitting regions (TA) of the barrier .
A heat exchanger comprising: (a) a fluid conductor comprising a heat exchange tubing comprising a first end and a lumen; and (b) a first connecting tubing comprising an outer surface, a lumen and a first sealing ring disposed about said outer surface of said first connecting tubing , characterised in that said first connecting tubing is configured for insertion into said lumen of said heat exchange tubing at said first end such that said first sealing ring comes in sealing engagement with said first connecting tubing and said heat exchange tubing to thereby form a floating connection between said heat exchange tubing at said first end and said first connecting tubing , said floating connection allowing relative movement between said heat exchange tubing and said first connecting tubing when the heat exchange tubing expands or contracts along at least its length when subjected to thermal fluctuations and a fluid flow is confined within a lumen formed of said lumen of said first connecting tubing and said lumen of said heat exchange tubing . (a) a fluid conductor comprising a heat exchange tubing comprising a first end and a lumen; and (b) a first connecting tubing comprising an outer surface, a lumen and a first sealing ring disposed about said outer surface of said first connecting tubing , characterised in that said first connecting tubing is configured for insertion into said lumen of said heat exchange tubing at said first end such that said first sealing ring comes in sealing engagement with said first connecting tubing and said heat exchange tubing to thereby form a floating connection between said heat exchange tubing at said first end and said first connecting tubing , said floating connection allowing relative movement between said heat exchange tubing and said first connecting tubing when the heat exchange tubing expands or contracts along at least its length when subjected to thermal fluctuations and a fluid flow is confined within a lumen formed of said lumen of said first connecting tubing and said lumen of said heat exchange tubing .
Process for the manufacture of microfibrillated cellulose, said process comprising at least the following steps: a) subjecting a cellulose pulp to at least one mechanical pretreatment step; b) subjecting the mechanically pretreated cellulose pulp of step (a) to a homogenizing step, which results in fibrils and fibril bundles of reduced length and diameter vis-à-vis the cellulose fibers present in the mechanically pretreated cellulose pulp of step (a), said step (b) resulting in microfibrillated cellulose; characterized in that the homogenizing step (b) involves compressing the cellulose pulp from step (a) and subjecting the cellulose pulp to a pressure drop, by expanding the cellulose through at least one orifice, providing said pressure drop between a volume segment, preferably a chamber, that is located upstream of said orifice, and another volume segment, preferably a chamber, that is located downstream of said orifice, area, wherein said pressure drop is at least 1000 bar, preferably more than 2000 bar, preferably more than 2500 bar, further preferably more than 3000 bar, wherein the residence time of a given flow segment comprising the cellulose fibers in the at least one orifice is less than 20 microseconds, preferably less than 10 microseconds, more preferably less than 2 microseconds, and wherein the cellulose fibrils are subjected to a turbulent flow regime in said volume segment, preferably a chamber, that is located downstream of said orifice. a) subjecting a cellulose pulp to at least one mechanical pretreatment step; b) subjecting the mechanically pretreated cellulose pulp of step (a) to a homogenizing step, which results in fibrils and fibril bundles of reduced length and diameter vis-à-vis the cellulose fibers present in the mechanically pretreated cellulose pulp of step (a), said step (b) resulting in microfibrillated cellulose;
A rotary electric machine comprising: - a rotor winding wound around a rotor core with a gap; - rotor winding ends formed by the rotor winding protruding to an end surface of the rotor core in an axial direction; - spacers arranged between adjacent rotor winding ends ; - mountain-shaped winding support portions provided on both surfaces of the spacers and having an apex extending in the width direction of respective spacers with an obtuse angle; - meandering ventilation paths formed on both surfaces of the spacers by the mountain-shaped winding support portions ; and - wave-shaped winding support portions formed in the meandering ventilation paths along the meandering ventilation paths , characterised in that : a mountain height of the mountain-shaped winding support portions is 1/3 or more as well as 1/2 or less of the width of the spacers . - a rotor winding wound around a rotor core with a gap; - rotor winding ends formed by the rotor winding protruding to an end surface of the rotor core in an axial direction; - spacers arranged between adjacent rotor winding ends ; - mountain-shaped winding support portions provided on both surfaces of the spacers and having an apex extending in the width direction of respective spacers with an obtuse angle; - meandering ventilation paths formed on both surfaces of the spacers by the mountain-shaped winding support portions ; and - wave-shaped winding support portions formed in the meandering ventilation paths along the meandering ventilation paths , characterised in that : a mountain height of the mountain-shaped winding support portions is 1/3 or more as well as 1/2 or less of the width of the spacers .
A method for producing a welded connection between a first plastic pipe and a second plastic pipe , characterized in that the method comprises the following method steps: - providing the first plastic pipe ; - providing an induction connection sleeve having a sleeve body which has a width in the axial direction; - pushing the induction connection sleeve onto the first plastic pipe such that the induction connection sleeve by way of its entire width of the sleeve body surrounds the first plastic pipe ; - providing the second plastic pipe ; - coaxially aligning the second plastic pipe in relation to the first plastic pipe and disposing the former directly next to the latter; - axially displacing the induction connection sleeve such that the latter in part surrounds the first plastic pipe and the second plastic pipe ; - positioning an inducing device in the region of the induction connection sleeve and by means of the inducing device inducing a current in the induction connection sleeve such that the sleeve body at least in part is plasticized and connects in a materially integral manner to the two plastic pipes . - providing the first plastic pipe ; - providing an induction connection sleeve having a sleeve body which has a width in the axial direction; - pushing the induction connection sleeve onto the first plastic pipe such that the induction connection sleeve by way of its entire width of the sleeve body surrounds the first plastic pipe ; - providing the second plastic pipe ; - coaxially aligning the second plastic pipe in relation to the first plastic pipe and disposing the former directly next to the latter; - axially displacing the induction connection sleeve such that the latter in part surrounds the first plastic pipe and the second plastic pipe ; - positioning an inducing device in the region of the induction connection sleeve and by means of the inducing device inducing a current in the induction connection sleeve such that the sleeve body at least in part is plasticized and connects in a materially integral manner to the two plastic pipes .
Continuous cooling device for cooling a metal strip , particularly a metal strip made of aluminium or an aluminium alloy, with at least one floating strip cooler , which has a plurality of upper jets distributed along the strip running direction and a plurality of lower jets distributed along the strip running direction , wherein the metal strip can be transported in a floating manner between the upper jets and the lower jets and in the process both the upper side of the strip and the lower side of the strip can be acted upon by cooling air, and having several water cooling units , by means of which the metal strip can be acted upon with cooling water, characterised in that the water cooling units are incorporated in the floating strip cooler , in that in each case at least one water cooling unit is arranged in several intermediate areas between in each case two lower jets or upper jets arranged directly one behind the other in the strip running direction , upper jets are arranged offset in relation to the lower jets along the strip running direction so that the metal strip is floated in a sinusoidal or wave-like manner. and having several water cooling units , by means of which the metal strip can be acted upon with cooling water, characterised in that the water cooling units are incorporated in the floating strip cooler , in that in each case at least one water cooling unit is arranged in several intermediate areas between in each case two lower jets or upper jets arranged directly one behind the other in the strip running direction , upper jets are arranged offset in relation to the lower jets along the strip running direction so that the metal strip is floated in a sinusoidal or wave-like manner.
Machine to work a box-like element or suchlike, wherein that it comprises at least a work apparatus provided with: at least a cutting unit to cut at least a strip-like element positioned on a corresponding lying plane (G) in a first substantially plane configuration; at least a loading unit provided with at least a thrust blade translatable in a first direction (T3); at least a folding and insertion unit provided with a housing seating of the strip-like element , said housing seating being directed substantially in an orthogonal direction with respect to said lying plane (G) of the strip-like element in said first substantially plane configuration, so that following the translation of the thrust blade in said first direction (T3) the strip-like element is introduced into said housing seating , assumes a substantial "U" shape and has at least a pair of flaps and at least a connection part , said folding and insertion unit being translatable in a second direction (T4) toward the box-like element so as to at least partly insert said pair of flaps in a slit made in the box-like element ; and at least an attachment unit of part of said flaps of the strip-like element inside said box-like element on which the slit is made, so that at least the connection part protrudes from the box-like element .
An electrosurgical generator for providing electrical treatment energy to an instrument having an active electrode and a return electrode , the generator comprising: a processor ; and a memory having stored thereon instructions which, when executed by the processor , cause the generator to: control a treatment energy to provide to an instrument in a coagulation mode. the treatment energy having an adjustable voltage ramp rate, wherein the adjustable voltage ramp rate can be set to a ramp rate in a range of voltage ramp rates that effectuate coagulation and ramp rates that are lower than a threshold that causes dissection of tissue; receive signals from the instrument over time relating to a load impedance between an active electrode and a return electrode of the instrument ; when the load impedance is above a threshold, set the adjustable voltage ramp rate to a ramp rate in the range of voltage ramp rates, and decrease, at the adjustable voltage ramp rate, a voltage of the treatment energy being provided to the instrument , and when the load impedance is below the threshold, set the adjustable voltage ramp rate to a ramp rate in the range of voltage ramp rates, and increase, at the adjustable voltage ramp rate, the voltage of the treatment energy being provided to the instrument , wherein the threshold is between approximately five-hundred fifty ohms and five-hundred ohms. a processor ; and a memory having stored thereon instructions which, when executed by the processor , cause the generator to: control a treatment energy to provide to an instrument in a coagulation mode. the treatment energy having an adjustable voltage ramp rate, wherein the adjustable voltage ramp rate can be set to a ramp rate in a range of voltage ramp rates that effectuate coagulation and ramp rates that are lower than a threshold that causes dissection of tissue; receive signals from the instrument over time relating to a load impedance between an active electrode and a return electrode of the instrument ; when the load impedance is above a threshold, set the adjustable voltage ramp rate to a ramp rate in the range of voltage ramp rates, and decrease, at the adjustable voltage ramp rate, a voltage of the treatment energy being provided to the instrument , and when the load impedance is below the threshold, set the adjustable voltage ramp rate to a ramp rate in the range of voltage ramp rates, and increase, at the adjustable voltage ramp rate, the voltage of the treatment energy being provided to the instrument , wherein the threshold is between approximately five-hundred fifty ohms and five-hundred ohms.
Method for a vehicle , the method comprising: obtaining camera sensor data of a camera of the vehicle ; obtaining lidar sensor data of a lidar sensor of the vehicle , the lidar sensor data comprising a point cloud of distance information; performing a time synchronization between the camera sensor data and the lidar sensor data, the method comprising triggering the camera to capture an image for the camera sensor data based on the time synchronization, wherein the performing of the time synchronization is triggered based on a rotation angle of the lidar sensor; determining information related to a motion of the vehicle ; and determining a combined image of the camera sensor data and the lidar sensor data based on the information related to the motion of the vehicle and based on the time synchronization between the camera sensor data and the lidar sensor data, wherein the information on the motion of the vehicle is used to compensate for distortions in the point cloud of the lidar sensor data that are due to the motion of the vehicle. obtaining camera sensor data of a camera of the vehicle ; obtaining lidar sensor data of a lidar sensor of the vehicle , the lidar sensor data comprising a point cloud of distance information; performing a time synchronization between the camera sensor data and the lidar sensor data, the method comprising triggering the camera to capture an image for the camera sensor data based on the time synchronization, wherein the performing of the time synchronization is triggered based on a rotation angle of the lidar sensor; determining information related to a motion of the vehicle ; and determining a combined image of the camera sensor data and the lidar sensor data based on the information related to the motion of the vehicle and based on the time synchronization between the camera sensor data and the lidar sensor data, wherein the information on the motion of the vehicle is used to compensate for distortions in the point cloud of the lidar sensor data that are due to the motion of the vehicle.
Transition piece for a wind turbine , to connect a wind turbine to a foundation , wherein the transition piece comprises a connection area to be connected to a foundation , wherein the transition piece comprises a floor , side walls and a roof , to provide an interior space , wherein the interior space comprises a central section and at least three further sections extending horizontally outward from the central section , wherein the transition piece comprises the central section and at least three legs that extend horizontally outward from the central section to form the floor of the transition piece , characterized in that an outer end of the floor of the transition piece is prolonged over the roof , thereby creating an open platform .
A nasal ventilation mask comprising: a body having an interior forming a nasal cavity , a gas channel , and an exterior opening, wherein the nasal cavity is configured to cover a patient's nose while leaving a mouth of the patient uncovered and the gas channel is separated from the nasal cavity; an O 2 port fluidly coupled to the nasal cavity and configured for introducing oxygen into the nasal cavity; a ventilation port fluidly coupled to the nasal cavity and configured for directing a gas toward or away from the nasal cavity; and an end-tidal CO 2 port fluidly coupled to the exterior opening through the gas channel of the body, wherein the exterior opening is adapted to scavenge a gas expelled orally by a wearer, and the gas channel is configured to direct the gas expelled orally from the exterior opening to the end-tidal CO 2 port. a body having an interior forming a nasal cavity , a gas channel , and an exterior opening, wherein the nasal cavity is configured to cover a patient's nose while leaving a mouth of the patient uncovered and the gas channel is separated from the nasal cavity; an O 2 port fluidly coupled to the nasal cavity and configured for introducing oxygen into the nasal cavity; a ventilation port fluidly coupled to the nasal cavity and configured for directing a gas toward or away from the nasal cavity; and an end-tidal CO 2 port fluidly coupled to the exterior opening through the gas channel of the body, wherein the exterior opening is adapted to scavenge a gas expelled orally by a wearer, and the gas channel is configured to direct the gas expelled orally from the exterior opening to the end-tidal CO 2 port.
A system for reading diagnostic assays for in-vitro diagnostic applications, the system comprising: a receiving member adapted to receive a diagnostic assay cartridge carrying a diagnostic assay; at least one excitation module configured to illuminate the diagnostic assay, when the diagnostic assay cartridge is placed in the receiving member ; a camera module for capturing an image of the illuminated diagnostic assay placed in the receiving member ; a processor for receiving the captured image from the camera module and determining whether or not a target analyte was present in the diagnostic assay captured by the camera module ; and a memory storing firmware , the firmware including a brightness compensation module configured to adjust the intensity of an image of a diagnostic cartridge captured by the camera module , in order to emulate a uniform field of illumination over the diagnostic cartridge ; wherein the brightness compensation module is configured to adjust the intensity of the captured image based on an illumination compensation look-up table , the illumination compensation look-up table comprising a brightness scaling factor for each pixel. a receiving member adapted to receive a diagnostic assay cartridge carrying a diagnostic assay; at least one excitation module configured to illuminate the diagnostic assay, when the diagnostic assay cartridge is placed in the receiving member ; a camera module for capturing an image of the illuminated diagnostic assay placed in the receiving member ; a processor for receiving the captured image from the camera module and determining whether or not a target analyte was present in the diagnostic assay captured by the camera module ; and a memory storing firmware , the firmware including a brightness compensation module configured to adjust the intensity of an image of a diagnostic cartridge captured by the camera module , in order to emulate a uniform field of illumination over the diagnostic cartridge ; wherein the brightness compensation module is configured to adjust the intensity of the captured image based on an illumination compensation look-up table , the illumination compensation look-up table comprising a brightness scaling factor for each pixel.
A method for wireless communications, the method performed by a user equipment, UE, the method comprising: receiving a Typeo-physical downlink control channel, PDCCH, common search space control resource set, CORESET, configuration and a physical resource block, PRB, grid offset in a physical broadcast channel, PBCH, the Typeo-PDCCH common search space CORESET configuration comprising an indication indicative of one or more offset values corresponding to one or more offsets relating to frequency locations of Typeo-PDCCH common search space CORESET resource blocks, PRBs, relative to frequency locations of PRBs of a SSB; aligning a PRB grid of SSB with a PRB grid of Typeo-PDCCH common search space CORESET by applying the PRB grid offset; mapping the indication to the one or more offset values using a mapping stored by the UE; determining the frequency locations of the Typeo-PDCCH common search space CORESET PRBs based on the one or more offset values and the frequency locations of the PRBs of the SSB; and receiving Typeo-PDCCH in the Typeo-PDCCH common search space CORESET; wherein each of the one or more offset values is based on at least an offset step size; and wherein the offset step size depends on at least the subcarrier spacing of the Typeo-PDCCH common search space CORESET. receiving a Typeo-physical downlink control channel, PDCCH, common search space control resource set, CORESET, configuration and a physical resource block, PRB, grid offset in a physical broadcast channel, PBCH, the Typeo-PDCCH common search space CORESET configuration comprising an indication indicative of one or more offset values corresponding to one or more offsets relating to frequency locations of Typeo-PDCCH common search space CORESET resource blocks, PRBs, relative to frequency locations of PRBs of a SSB; aligning a PRB grid of SSB with a PRB grid of Typeo-PDCCH common search space CORESET by applying the PRB grid offset; mapping the indication to the one or more offset values using a mapping stored by the UE; determining the frequency locations of the Typeo-PDCCH common search space CORESET PRBs based on the one or more offset values and the frequency locations of the PRBs of the SSB; and receiving Typeo-PDCCH in the Typeo-PDCCH common search space CORESET; wherein each of the one or more offset values is based on at least an offset step size; and wherein the offset step size depends on at least the subcarrier spacing of the Typeo-PDCCH common search space CORESET.