mhurhangee/patent-ind-claim-en huggingface dataset:
Apparatus for inspecting a sample , provided with a charged particle microscope having a column for producing a focused beam of charged particles to observe or modify the sample , and an optical microscope to observe a region of interest on the sample as is observed by the charged particle beam or vice versa, the apparatus accommodated with a detection and processing unit is adapted and equipped for acquiring an image as generated with said charged particle and said optical microscope, the unit is further adapted for performing an image alignment procedure mutually correlating the image coordinate systems of said images, wherein the apparatus is adapted for using a detection of a change in the optical image as caused therein by the charged particle beam for correlating said images characterized in that the change in the optical image comprises a modification in a luminescent or fluorescent light from the sample or the generation of cathodoluminescence light by the charged particle beam falling on the sample .
A nCPAP device comprising: an inlet configured for receiving pressurized gas, wherein said pressurized gas supplies gas for first and a second patient nares; a nozzle for generating a single gas jet flow when said pressurized gas moves therethrough; a flow splitter to split said single gas jet flow into two channels for said first and second patient nares according to one or more of nare anatomy and flow path resistance; and the nCPAP device characterized in that the flow splitter comprises an exhaust port disposed proximal to an exit of the nozzle and so in fluid communication with the two channels wherein an exhalation flow through the two channels and the gas jet flow meet along-a curving edge transition such that the exhalation flow causes the gas jet flow to deflect and said exhalation flow and the gas jet flow move to the exhaust port. an inlet configured for receiving pressurized gas, wherein said pressurized gas supplies gas for first and a second patient nares; a nozzle for generating a single gas jet flow when said pressurized gas moves therethrough; a flow splitter to split said single gas jet flow into two channels for said first and second patient nares according to one or more of nare anatomy and flow path resistance; and the nCPAP device characterized in that the flow splitter comprises an exhaust port disposed proximal to an exit of the nozzle and so in fluid communication with the two channels wherein an exhalation flow through the two channels and the gas jet flow meet along-a curving edge transition such that the exhalation flow causes the gas jet flow to deflect and said exhalation flow and the gas jet flow move to the exhaust port.
A fuel tank , comprising: an interior wall ; a sump ; and a baffle , comprising: a center fitting ; a full-length containment petal , comprising a full-length side edge , extending radially outward from the center fitting ; characterized in that the baffle further comprises: a partial-length containment petal , comprising a partial-length side edge , extending radially outward from the center fitting ; and a dump tube , connected to the sump , wherein: the full-length side edge of the full-length containment petal is longer than the partial-length side edge of the partial-length containment petal , and all of the partial-length side edge of the partial-length containment petal is attached to a linear portion of the full-length side edge of the full-length containment petal . an interior wall ; a sump ; and a baffle , comprising: a center fitting ; a full-length containment petal , comprising a full-length side edge , a center fitting ; a full-length containment petal , comprising a full-length side edge , extending radially outward from the center fitting ; a partial-length containment petal , comprising a partial-length side edge , extending radially outward from the center fitting ; and a dump tube , connected to the sump , wherein: the full-length side edge of the full-length containment petal is longer than the partial-length side edge of the partial-length containment petal , and all of the partial-length side edge of the partial-length containment petal is attached to a linear portion of the full-length side edge of the full-length containment petal . the full-length side edge of the full-length containment petal is longer than the partial-length side edge of the partial-length containment petal , and all of the partial-length side edge of the partial-length containment petal is attached to a linear portion of the full-length side edge of the full-length containment petal .
An electrochemical cell comprising: a housing having an inlet, an outlet, and a central axis; and an anode-cathode pair disposed concentrically within the housing about the central axis and defining an active area between an anode and a cathode of the anode-cathode pair, an active surface area of at least one of the anode and the cathode having a surface area greater than a surface area of an internal surface of the housing, the anode-cathode pair configured and arranged to direct all fluid passing through the electrochemical cell axially through the active area, wherein the electrochemical cell is characterised in that the electrochemical cell further comprises a non-conductive central core element disposed within the electrochemical cell and configured to block flow of fluid through a portion of the electrochemical cell along the central axis, the central non-conductive core element unconnected to at least one electrode of the anode-cathode pair. a housing having an inlet, an outlet, and a central axis; and an anode-cathode pair disposed concentrically within the housing about the central axis and defining an active area between an anode and a cathode of the anode-cathode pair, an active surface area of at least one of the anode and the cathode having a surface area greater than a surface area of an internal surface of the housing, the anode-cathode pair configured and arranged to direct all fluid passing through the electrochemical cell axially through the active area, wherein the electrochemical cell is characterised in that the electrochemical cell further comprises a non-conductive central core element disposed within the electrochemical cell and configured to block flow of fluid through a portion of the electrochemical cell along the central axis, the central non-conductive core element unconnected to at least one electrode of the anode-cathode pair.
An apparatus for transferring material, comprising: a filament ; a head portion adapted to movably receive at least a part of the filament , said filament having a first end for carrying material to be transferred from a source location to a target location; wherein said filament is movable such that the first end protrudes by a pre-determined length from the head portion to allow transfer of the material to and from the first end ; at least one transporting arm for transporting the head portion along an x-y horizontal plane and/or vertically along a z-axis to align the first end of the filament with the sampling location or the target location; and a driving mechanism for advancing and/or retracting the filament towards and/or away from the head portion ; characterised in that the driving mechanism is arranged in a fixed support separated from the head portion and the filament . a filament ; a head portion adapted to movably receive at least a part of the filament , said filament having a first end for carrying material to be transferred from a source location to a target location; wherein said filament is movable such that the first end protrudes by a pre-determined length from the head portion to allow transfer of the material to and from the first end ; at least one transporting arm for transporting the head portion along an x-y horizontal plane and/or vertically along a z-axis to align the first end of the filament with the sampling location or the target location; and a driving mechanism for advancing and/or retracting the filament towards and/or away from the head portion ; characterised in that the driving mechanism is arranged in a fixed support separated from the head portion and the filament .
An antimicrobial releasing agent comprising: i. a carrier material comprising an acidified silica gel, the carrier material having a pH of from 1.4 to 3.1 and being 50 to 90% by weight with respect to the total weight of the antimicrobial releasing agent; ii. an active compound comprising a metal chlorite the active compound being 5 to 30% by weight with respect to the total weight of the antimicrobial releasing agent; and iii. a trigger comprising a hygroscopic compound, the trigger being 2 to 20% by weight with respect to the total weight of the antimicrobial releasing agent. i. a carrier material comprising an acidified silica gel, the carrier material having a pH of from 1.4 to 3.1 and being 50 to 90% by weight with respect to the total weight of the antimicrobial releasing agent; ii. an active compound comprising a metal chlorite the active compound being 5 to 30% by weight with respect to the total weight of the antimicrobial releasing agent; and iii. a trigger comprising a hygroscopic compound, the trigger being 2 to 20% by weight with respect to the total weight of the antimicrobial releasing agent.
A method for manufacturing a preform for a multicore fiber , comprising: stacking (S1) a plurality of core rods (20; 81) and a plurality of silica-based filler rods (30; 82-85) in a tube , forming a stack of rods; collapsing (S2) the tube around the stack of rods, forming a collapsed stack; the method being characterized in : depositing (S3) a layer of silica around the collapsed stack; removing (S4) at least part of the deposited layer of silica. stacking (S1) a plurality of core rods (20; 81) and a plurality of silica-based filler rods (30; 82-85) in a tube , forming a stack of rods; collapsing (S2) the tube around the stack of rods, forming a collapsed stack; the method being characterized in : depositing (S3) a layer of silica around the collapsed stack; removing (S4) at least part of the deposited layer of silica. depositing (S3) a layer of silica around the collapsed stack; removing (S4) at least part of the deposited layer of silica.
Work equipment , comprising: a vehicle body ; a storage container provided on the vehicle body so as to be moveable between a horizontal position for storing a collected article and an inclined position for unloading the collected article; a drive unit provided between the vehicle body and the storage container and configured to change a container inclination angle (φ) defined as an angle of the storage container with respect to the vehicle body ; an inclination angle sensor configured to detect a vehicle body inclination angle (θ L , θ H ) defined as an inclination angle of the vehicle body with respect to a horizontal plane; and a control unit configured to control a driving operation of the drive unit , the control unit being configured to control the drive unit according to the vehicle body inclination angle (θ L , θ H ), characterized in that when the drive unit is performing the driving operation to increase the container inclination angle (φ), and a time change rate of the vehicle body inclination angle (Δθ L , Δθ H ) exceeds a predetermined threshold value (Δθ th ), the control unit is configured to cause the drive unit to decrease the container inclination angle (φ).
A method for a user equipment, UE, device comprising a processor and a memory, the method comprising establishing a connection to a base station with a first transmission time interval, TTI, length; determining a configuration of TTI shortening with a second TTI length shorter than the first TTI length ; and determining a short TTI, sTTI, pattern for a first TTI based at least in part on a control format indicator, CFI, value indicated in the first TTI, wherein the first TTI comprises a subframe, wherein the CFI indicates the number of OFDM symbols used for transmission of Physical Downlink Control Channels, PDCCHs, within the subframe, and wherein the first TTI is with the first TTI length and comprises a plurality of sTTIs with the second TTI length in time domain; and monitoring a first short Physical Downlink Control Channel, sPDCCH, region for a scheduled DL transmission with the second TTI length based at least in part on the sTTI pattern . establishing a connection to a base station with a first transmission time interval, TTI, length; determining a configuration of TTI shortening with a second TTI length shorter than the first TTI length ; and determining a short TTI, sTTI, pattern for a first TTI based at least in part on a control format indicator, CFI, value indicated in the first TTI, wherein the first TTI comprises a subframe, wherein the CFI indicates the number of OFDM symbols used for transmission of Physical Downlink Control Channels, PDCCHs, within the subframe, and wherein the first TTI is with the first TTI length and comprises a plurality of sTTIs with the second TTI length in time domain; and monitoring a first short Physical Downlink Control Channel, sPDCCH, region for a scheduled DL transmission with the second TTI length based at least in part on the sTTI pattern .
A circle throw screening machine for screening particulate material according to size, the machine comprising: a housing having a longitudinal aspect, an upper perforated deck and a lower deck disposed underneath the perforated upper deck; a frame configured for mounting the housing; a suspension system for mounting the housing to the frame and configured to allow isolation of the housing relative to the frame; three rotatable unbalanced drive shafts equally spaced along a longitudinal aspect of the upper perforated deck coupled to the housing and configured to vibrate the housing in response to rotation of the drive shafts; and a drive mechanism coupled to the unbalanced drive shafts and configured to effect synchronous rotation of the three drive shafts in the same direction characterised in that the distance between a first end of the deck and the first drive shaft, the distance between the first and second drive shafts, the distance between the second and third drive shafts, and the distance between the third drive shaft and a second end of the deck, are substantially the same. a housing having a longitudinal aspect, an upper perforated deck and a lower deck disposed underneath the perforated upper deck; a frame configured for mounting the housing; a suspension system for mounting the housing to the frame and configured to allow isolation of the housing relative to the frame; three rotatable unbalanced drive shafts equally spaced along a longitudinal aspect of the upper perforated deck coupled to the housing and configured to vibrate the housing in response to rotation of the drive shafts; and a drive mechanism coupled to the unbalanced drive shafts and configured to effect synchronous rotation of the three drive shafts in the same direction characterised in that the distance between a first end of the deck and the first drive shaft, the distance between the first and second drive shafts, the distance between the second and third drive shafts, and the distance between the third drive shaft and a second end of the deck, are substantially the same.
A method for wireless communication, comprising: receiving a first downlink transmission in a first short transmission time interval, sTTI (210-a, 305-a, 405-a, 505-a); receiving a second downlink transmission in a second sTTI (210-b, 305-b, 405-b, 505-b); identifying one of a plurality of demodulation reference signal, DMRS, configurations for demodulating the second downlink transmission, wherein the plurality of DMRS configurations comprises at least one combined DMRS configuration sharing DMRS from the first downlink transmission and DMRS from the second downlink transmission, shared across the first sTTI (210-a, 305-a, 405-a, 505-a) and the second sTTI (210-b, 305-b, 405-b, 505-b), for demodulating the second downlink transmission, wherein the identifying the one of the plurality of DMRS configurations comprises identifying the at least one combined DMRS configuration based at least in part on a number of layers used for the receiving the downlink transmissions being above a layer threshold; and demodulating the second downlink transmission based at least in part on the one of the plurality of DMRS configurations. receiving a first downlink transmission in a first short transmission time interval, sTTI (210-a, 305-a, 405-a, 505-a); receiving a second downlink transmission in a second sTTI (210-b, 305-b, 405-b, 505-b); identifying one of a plurality of demodulation reference signal, DMRS, configurations for demodulating the second downlink transmission, wherein the plurality of DMRS configurations comprises at least one combined DMRS configuration sharing DMRS from the first downlink transmission and DMRS from the second downlink transmission, shared across the first sTTI (210-a, 305-a, 405-a, 505-a) and the second sTTI (210-b, 305-b, 405-b, 505-b), for demodulating the second downlink transmission, wherein the identifying the one of the plurality of DMRS configurations comprises identifying the at least one combined DMRS configuration based at least in part on a number of layers used for the receiving the downlink transmissions being above a layer threshold; and demodulating the second downlink transmission based at least in part on the one of the plurality of DMRS configurations.
A motor comprising a stator and a rotor rotatable relative to the stator , at least one of the stator and the rotor comprising a magnetic core and a winding wound around the magnetic core , the magnetic core being mounted to a base body , wherein the base body has a step with an axial end surface contacting the magnetic core , wherein the base body is configured to receive the rotor , the magnetic core having a pair of pole shoes , and inner wall surfaces of the pair of pole shoes are recessed to form pole arc surfaces surrounding the base body , wherein the pole arc surfaces of the pole shoes contact an outer wall surface of the base body , and the base body has an axially-extending rib which is inserted into a slot between pole tips of the pole shoes , and characterized in that the step is projected from the outer wall surface of the base body and defines recesses in the step at two circumferential sides of the rib for receiving debris produced by mutual friction between the magnetic core and the base body .
Process for the oligomerization of an olefinic feedstock carried out at a temperature between 30°C and 200°C and a pressure between 0.1 and 10 MPa, in the presence of a homogeneous catalytic oligomerization system and a solvent comprising a) a step of oligomerizing said olefinic feedstock in a reaction section comprising an oligomerization reactor and one or more recirculation loops enabling the control of the temperature in said reactor via the cooling of a liquid phase fraction, b) a step of separating, in a downstream separation section, a reaction effluent resulting from the oligomerization step a) so as to obtain a solvent fraction, c) a step of cooling the solvent fraction resulting from step b) to a temperature below the temperature of the recirculation loop(s), d) a step of introducing, into the oligomerization step a), the cooled solvent fraction resulting from step c) in the reaction section. a) a step of oligomerizing said olefinic feedstock in a reaction section comprising an oligomerization reactor and one or more recirculation loops enabling the control of the temperature in said reactor via the cooling of a liquid phase fraction, b) a step of separating, in a downstream separation section, a reaction effluent resulting from the oligomerization step a) so as to obtain a solvent fraction, c) a step of cooling the solvent fraction resulting from step b) to a temperature below the temperature of the recirculation loop(s), d) a step of introducing, into the oligomerization step a), the cooled solvent fraction resulting from step c) in the reaction section.
A lengthy body having a length dimension being much greater than the transverse dimensions of width and thickness comprising: i) high-performance polyethylene (HPPE) fibers comprising a hard component, the hard component having a Mohs hardness of at least 2.5; wherein the HPPE fibers comprising the hard component have a tenacity of at least 0.5 N/tex and ii) a polymeric resin, wherein the polymeric resin is a homopolymer of ethylene or propylene or is a copolymer of ethylene and/or propylene, wherein the polymeric resin has a density as measured according to ISO1183-2004 in the range from 860 to 970 kg/m 3 , a melting temperature in the range from 40 to 140°C and a heat of fusion of at least 5 J/g; wherein iii) the polymeric resin is a coating on the surface of the HPPE fibers comprising the hard component. i) high-performance polyethylene (HPPE) fibers comprising a hard component, the hard component having a Mohs hardness of at least 2.5; wherein the HPPE fibers comprising the hard component have a tenacity of at least 0.5 N/tex and ii) a polymeric resin, wherein the polymeric resin is a homopolymer of ethylene or propylene or is a copolymer of ethylene and/or propylene, wherein the polymeric resin has a density as measured according to ISO1183-2004 in the range from 860 to 970 kg/m 3 , a melting temperature in the range from 40 to 140°C and a heat of fusion of at least 5 J/g; wherein iii) the polymeric resin is a coating on the surface of the HPPE fibers comprising the hard component.
An automatically inflatable patient transfer air mattress comprising: a main mattress portion forming a plate shape with a predetermined thickness when charged and inflated with air; a protective cover portion provided on one side surface of the main mattress portion in a longitudinal direction, and configured to cover one surface of the main mattress portion when deployed; and a cushion wheel unit disposed on a bottom portion of the main mattress portion to absorb impact from below; and four side pad portions respectively coupled to four edge portions of the top surface of the main mattress portion , wherein the main mattress portion and the side pad portions are coupled via first pad joining portions , wherein second pad joining portions are located between and elastically coupled to adjacent side surfaces of the four side pad portions , and wherein one of the four side pad portions is connected to the main mattress portion via a gas pipe channel in such a manner that fluid is in communication therebetween. a main mattress portion forming a plate shape with a predetermined thickness when charged and inflated with air; a protective cover portion provided on one side surface of the main mattress portion in a longitudinal direction, and configured to cover one surface of the main mattress portion when deployed; and a cushion wheel unit disposed on a bottom portion of the main mattress portion to absorb impact from below; and four side pad portions respectively coupled to four edge portions of the top surface of the main mattress portion , wherein the main mattress portion and the side pad portions are coupled via first pad joining portions , wherein second pad joining portions are located between and elastically coupled to adjacent side surfaces of the four side pad portions , and wherein one of the four side pad portions is connected to the main mattress portion via a gas pipe channel in such a manner that fluid is in communication therebetween.