mhurhangee/patent-ind-claim-en huggingface dataset:
A device for administering a liquid drug formulation to a patient, the device comprising: a reservoir configured to hold a quantity of the liquid drug formulation; and a microfluidic circuit which comprises at least one flow path configured to transport the liquid drug formulation from the reservoir to a drug release outlet, wherein the microfluidic circuit comprises a pressure sensor disposed between two flow restrictors in the at least one flow path , characterized in that the pressure sensor and the two flow restrictors comprise a first substrate secured to a second substrate with a flow channel formed into at least one of the first substrate and the second substrate, and disposed between the first substrate and the second substrate, and wherein the pressure sensor comprises (i) a pressure chamber formed into at least one of the first substrate and the second substrate , (ii) a pressure dome disposed about the pressure chamber and comprising a region of at least one of the first substrate and the second substrate that is thinner than the rest of the first substrate and the second substrate , and (iii) a strain gauge disposed about the pressure dome . a reservoir configured to hold a quantity of the liquid drug formulation; and a microfluidic circuit which comprises at least one flow path configured to transport the liquid drug formulation from the reservoir to a drug release outlet, wherein the microfluidic circuit comprises a pressure sensor disposed between two flow restrictors in the at least one flow path , characterized in that the pressure sensor and the two flow restrictors comprise a first substrate secured to a second substrate with a flow channel formed into at least one of the first substrate and the second substrate, and disposed between the first substrate and the second substrate, and wherein the pressure sensor comprises (i) a pressure chamber formed into at least one of the first substrate and the second substrate , (ii) a pressure dome disposed about the pressure chamber and comprising a region of at least one of the first substrate and the second substrate that is thinner than the rest of the first substrate and the second substrate , and (iii) a strain gauge disposed about the pressure dome .
System for lighting sections of floor, ceiling or wall coverings and/or rectangular or square panel bodies enclose skirting boards or cover strips that are laid in a composite manner, which are manufactured in the form of laminate panels, multilayer parquet elements, ceiling panels, furniture panels or tiles, and skirting boards or cover strips, the panel bodies and/or the skirting boards or cover strips having pattern cut-outs which are illuminated in sections, characterized in that the system comprises illuminated and/or non-illuminated panel bodies and skirting boards or cover strips , with approximately rectangular channels for accommodating flat ribbon cables being arranged on the rear side of the panel bodies which are fitted with sections of illuminants , the channels having open recesses in the region of the pattern cutouts to be illuminated, into which diffusion discs covering the pattern cutouts are inserted with one of their end faces.
A recombinant adeno-associated vector (rAAV) comprising a nucleic acid sequence comprising a transgene encoding Glut1 operably linked to a chicken Beta-actin promoter and wherein the rAAV is capable of crossing the blood-brain barrier (BBB), and wherein the AAV is AAV8 or AAV9.
A capacitive pressure sensor comprising: a substrate comprising a first electrode; a membrane comprising a second electrode , wherein the membrane is spatially separated by a cavity from the substrate ; a central pillar that attaches a central region of the membrane to the substrate permanently, such that the cavity is of annular form surrounding said central pillar; wherein the first and second electrodes are located opposite to each other; characterized in that the capacitive pressure sensor is dimensioned such that the pressure under which the membrane is collapsible onto the substrate is larger than 1.7 bar and smaller than 2.3 bar. a substrate comprising a first electrode; a membrane comprising a second electrode , wherein the membrane is spatially separated by a cavity from the substrate ; a central pillar that attaches a central region of the membrane to the substrate permanently, such that the cavity is of annular form surrounding said central pillar; wherein the first and second electrodes are located opposite to each other; characterized in that the capacitive pressure sensor is dimensioned such that the pressure under which the membrane is collapsible onto the substrate is larger than 1.7 bar and smaller than 2.3 bar.
A spray nozzle assembly having components housed within a body formed from an engagable lance adaptor and spray nozzle retainer cap and having a housing for protecting an internal wear component from damage, characterised in that the assembly comprises a further housing for protecting a further internal wear component from damage and a clasp device for locating and securing the wear components in the cap , wherein the wear components and housings clip in to the clasp device in which they are retained by means of arm members , wherein the wear component comprises a swirl chamber and the further wear component comprises an orifice disc .
A printing apparatus comprising: a printhead including a plurality of nozzles each configured to discharge ink and a plurality of sensors , corresponding to the plurality of nozzles, for detecting a discharge state of ink from the plurality of nozzles; a print means arranged to print, based on print data, an image by driving the printhead under a first drive condition to discharge ink from the printhead to a first area (LI), and discharge ink to a second area (L2) different from the first area by driving the printhead, based on inspection data, under a second drive condition different from the first drive condition; and characterized by a judgment means arranged to judge a discharge state of each of the plurality of nozzles, based on an output from each of the plurality of sensors at a timing of driving the printhead by the print means under the second drive condition. a printhead including a plurality of nozzles each configured to discharge ink and a plurality of sensors , corresponding to the plurality of nozzles, for detecting a discharge state of ink from the plurality of nozzles; a print means arranged to print, based on print data, an image by driving the printhead under a first drive condition to discharge ink from the printhead to a first area (LI), and discharge ink to a second area (L2) different from the first area by driving the printhead, based on inspection data, under a second drive condition different from the first drive condition; and characterized by a judgment means arranged to judge a discharge state of each of the plurality of nozzles, based on an output from each of the plurality of sensors at a timing of driving the printhead by the print means under the second drive condition.
A system for processing audio signals, the system comprising: a headset and a first tournament audio controller (TAC) , said TAC comprising a chat loop switch and operatively coupled to said headset , said headset comprising a microphone , and said first TAC being in a daisy chain of TACs , said first TAC being operable to: receive a chat signal from a previous TAC in said daisy chain of TACs ; receive a microphone signal from said microphone in said headset ; sum said chat signal with said microphone signal ; communicate said summed chat signal and microphone signal to a next TAC in said daisy chain if said first TAC is not at an end of said daisy chain of TACs ; communicate, utilizing said chat loop switch in said first TAC , a chat signal from a next TAC to said previous TAC in said daisy chain if said first TAC is not at an end of said daisy chain of TACs ; communicate, utilizing said chat loop switch , said summed chat signal and microphone signal to said previous TAC if said first TAC is at an end of said daisy chain; and communicate said chat signal to said headset . receive a chat signal from a previous TAC in said daisy chain of TACs ; receive a microphone signal from said microphone in said headset ; sum said chat signal with said microphone signal ; communicate said summed chat signal and microphone signal to a next TAC in said daisy chain if said first TAC is not at an end of said daisy chain of TACs ; communicate, utilizing said chat loop switch in said first TAC , a chat signal from a next TAC to said previous TAC in said daisy chain if said first TAC is not at an end of said daisy chain of TACs ; communicate, utilizing said chat loop switch , said summed chat signal and microphone signal to said previous TAC if said first TAC is at an end of said daisy chain; and communicate said chat signal to said headset .
A system for the treatment of a wound site using negative pressure, the system comprising: a porous pad suitable for the transmission of negative pressure to the wound site; a drainage layer positioned under the porous pad, the drainage layer configured to channel fluid from the wound site; a flexible drape configured to be placed over the porous pad; a source of negative pressure; and a conduit configured to transmit negative pressure from the source to the flexible drape; wherein the drainage layer comprises a hydrophilic foam and characterized in that the hydrophilic foam is sandwiched between a top film layer and a bottom film layer wherein the top film layer and the bottom film layer are at least partially welded together at their edges and wherein the top film layer and the bottom film layer are spot-welded, thereby creating fluid channels. a porous pad suitable for the transmission of negative pressure to the wound site; a drainage layer positioned under the porous pad, the drainage layer configured to channel fluid from the wound site; a flexible drape configured to be placed over the porous pad; a source of negative pressure; and a conduit configured to transmit negative pressure from the source to the flexible drape; wherein the drainage layer comprises a hydrophilic foam and characterized in that the hydrophilic foam is sandwiched between a top film layer and a bottom film layer wherein the top film layer and the bottom film layer are at least partially welded together at their edges and wherein the top film layer and the bottom film layer are spot-welded, thereby creating fluid channels.
Wing system comprising a stowable, aerodynamic wing structure having at least one pressure-tight tubular pressure chamber made of a flexible material and preferably extending along the wingspan of the wing structure , and also comprising a tear-resistant outer skin covering , which envelops the wing structure , and further comprising a high-pressure pump system, characterized in that the at least one pressure chamber of the wing structure can be filled with an incompressible fluid, wherein the incompressible fluid is kept under high pressure of above 5.0×10 6 pascals in the pressure chamber . a stowable, aerodynamic wing structure having at least one pressure-tight tubular pressure chamber made of a flexible material and preferably extending along the wingspan of the wing structure , and also comprising a tear-resistant outer skin covering , which envelops the wing structure , and further comprising a high-pressure pump system, characterized in that the at least one pressure chamber of the wing structure can be filled with an incompressible fluid, wherein the incompressible fluid is kept under high pressure of above 5.0×10 6 pascals in the pressure chamber .
A tire comprising a tread, wherein the tread has land parts partitioned by a plurality of circumferential grooves, wherein at least one of the land parts has no opening in the circumferential groove at both ends and has one or more lateral grooves in which a groove depth of the deepest part of the groove bottom is 80% or more of a thickness of the entire tread part, wherein the tread has at least one rubber layer, wherein a first rubber layer constituting the tread surface is composed of a rubber composition comprising a rubber component, a filler, a silane coupling agent, and a thiuram-based vulcanization accelerator, wherein the rubber component constituting the first rubber layer comprises an isoprene-based rubber, a styrene-butadiene rubber, and a butadiene rubber, wherein the filler comprised in the rubber composition constituting the first rubber layer comprises silica, wherein the rubber composition constituting the first rubber layer comprises 60 parts by mass or more of the filler based on 100 parts by mass of the rubber component, and wherein a breaking energy measured after subjecting the rubber composition constituting the first rubber layer to thermal deterioration at 80°C for 7 days is 1,000 or more, and wherein the breaking energy is measured according to the method described in the description. wherein the tread has land parts partitioned by a plurality of circumferential grooves, wherein at least one of the land parts has no opening in the circumferential groove at both ends and has one or more lateral grooves in which a groove depth of the deepest part of the groove bottom is 80% or more of a thickness of the entire tread part, wherein the tread has at least one rubber layer, wherein a first rubber layer constituting the tread surface is composed of a rubber composition comprising a rubber component, a filler, a silane coupling agent, and a thiuram-based vulcanization accelerator, wherein the rubber component constituting the first rubber layer comprises an isoprene-based rubber, a styrene-butadiene rubber, and a butadiene rubber, wherein the filler comprised in the rubber composition constituting the first rubber layer comprises silica, wherein the rubber composition constituting the first rubber layer comprises 60 parts by mass or more of the filler based on 100 parts by mass of the rubber component, and wherein a breaking energy measured after subjecting the rubber composition constituting the first rubber layer to thermal deterioration at 80°C for 7 days is 1,000 or more, and wherein the breaking energy is measured according to the method described in the description.
A method for determining a hybrid automatic repeat request, HARQ, codebook, comprising: receiving a second downlink control information, DCI, by a terminal from a base station, to schedule a second PDSCH, the second DCI including HARQ timing indication information for the second PDSCH, wherein the HARQ timing indication information indicates an invalid HARQ timing to indicate that feedback for the second PDSCH is not to be transmitted temporally; receiving a first DCI, by the terminal from the base station, to schedule a first PDSCH, the first DCI including HARQ timing indication information for the first PDSCH, wherein the HARQ timing indication information indicates a group PUCCH time domain resource for transmitting the HARQ-ACK corresponding to the first PDSCH, determining (S210), by a terminal device, a physical downlink shared channel, PDSCH, group, wherein the PDSCH group comprises the first PDSCH and the second PDSCH, the second PDSCH being received before the first PDSCH in time domain by the terminal device from the base station; determining, by the terminal device, the size of a group HARQ codebook according to a number of PDSCHs included in the PDSCH group, wherein the group HARQ codebook comprises an HARQ feedback corresponding to the first PDSCH and comprises an HARQ codebook corresponding to the second PDSCH, wherein the HARQ codebook corresponding to the second PDSCH is set as NACK or placeholder information; transmitting, by the terminal to the base station, the group HARQ codebook on the group PUCCH time domain resource. receiving a second downlink control information, DCI, by a terminal from a base station, to schedule a second PDSCH, the second DCI including HARQ timing indication information for the second PDSCH, wherein the HARQ timing indication information indicates an invalid HARQ timing to indicate that feedback for the second PDSCH is not to be transmitted temporally; receiving a first DCI, by the terminal from the base station, to schedule a first PDSCH, the first DCI including HARQ timing indication information for the first PDSCH, wherein the HARQ timing indication information indicates a group PUCCH time domain resource for transmitting the HARQ-ACK corresponding to the first PDSCH, determining (S210), by a terminal device, a physical downlink shared channel, PDSCH, group, wherein the PDSCH group comprises the first PDSCH and the second PDSCH, the second PDSCH being received before the first PDSCH in time domain by the terminal device from the base station; determining, by the terminal device, the size of a group HARQ codebook according to a number of PDSCHs included in the PDSCH group, wherein the group HARQ codebook comprises an HARQ feedback corresponding to the first PDSCH and comprises an HARQ codebook corresponding to the second PDSCH, wherein the HARQ codebook corresponding to the second PDSCH is set as NACK or placeholder information; transmitting, by the terminal to the base station, the group HARQ codebook on the group PUCCH time domain resource.
Lumbar protection exomuscle that comprises a harness formed by: • a rigid back piece with shoulder straps and a hip strap such that the back piece is adapted to the user around the shoulders and hip when the lumbar protection is worn by the user; • two elastic straps affixed to the bottom part of the back piece ; • two knee fasteners for wrapping around the lower area of the patella; • two non-elastic straps between the two elastic straps and the two knee fasteners ; and • two foot fasteners extending from each non-elastic straps stretching to the foot and clasping to the contour of the foot or ankle, characterized in that the hip strap is arranged in correspondence to the bottom part of the rigid back piece and in that an upper part of the elastic straps affixed to the bottom part of the back piece is located over the hips of the user when the lumbar protection is worn by the user. • a rigid back piece with shoulder straps and a hip strap such that the back piece is adapted to the user around the shoulders and hip when the lumbar protection is worn by the user; • two elastic straps affixed to the bottom part of the back piece ; • two knee fasteners for wrapping around the lower area of the patella; • two non-elastic straps between the two elastic straps and the two knee fasteners ; and • two foot fasteners extending from each non-elastic straps stretching to the foot and clasping to the contour of the foot or ankle,
System for drone defense, comprising at least one jammer and at least one radio detector , wherein the jammer is configured to transmit an interference signal over a frequency range, and the radio detector is configured to detect a radio control signal of a drone , wherein the frequency range of the interference signal comprises a carrier frequency of the radio control signal or a GPS signal, wherein the jammer is configured to intermittently interrupt the interference signal and the radio detector is configured to receive the interference signal, to independently detect the interruptions of the interference signal without direct connection to the jammer and to detect the radio control signal of the drone within the interruptions of the interference signal. wherein the jammer is configured to transmit an interference signal over a frequency range, and the radio detector is configured to detect a radio control signal of a drone , wherein the frequency range of the interference signal comprises a carrier frequency of the radio control signal or a GPS signal, wherein the jammer is configured to intermittently interrupt the interference signal and the radio detector is configured to receive the interference signal, to independently detect the interruptions of the interference signal without direct connection to the jammer and to detect the radio control signal of the drone within the interruptions of the interference signal.
A polyvinyl chloride composition, characterized in comprising the following components based on parts by weight: (a) 100 parts polyvinyl chloride resin, and (b) 2-16 parts toughening modifier; wherein said toughening modifier is rubber powders with an elongation at break greater than 2201% and a weight percentage of chlorine that is 5-45wt%; said elongation at break is tested by GB/T528-2009; the weight percentage of chlorine is tested by the method A of GB/T7139-2002. (a) 100 parts polyvinyl chloride resin, and (b) 2-16 parts toughening modifier;
Phaleria macrocarpa extract or fraction(s) for use in the treatment of inflammation relating to breast cancer.
A left ventricular assist device (LVAD) system configured to reduce a risk of right heart failure (RHF) in a patient following implantation of a LVAD in the patient, the left ventricular assist device (LVAD) system comprising: an LVAD ; an implantable cardiac electronic device; a controller operably coupled with the LVAD and configured to: receive a plurality of pulmonary artery (PA) pressure measurements or PA trending data from the implantable cardiac electronic device; characterised in that the controller is further configured to: fit a regression model to the plurality of PA pressure measurements or PA trending data; determine a deviation between at least one estimated parameter and at least one ideal parameter, wherein the at least one estimated parameter is computed from the regression model; and adjust at least one operating parameter of the LVAD based on the determined deviation. an LVAD ; an implantable cardiac electronic device; a controller operably coupled with the LVAD and configured to: receive a plurality of pulmonary artery (PA) pressure measurements or PA trending data from the implantable cardiac electronic device; characterised in that the controller is further configured to: fit a regression model to the plurality of PA pressure measurements or PA trending data; determine a deviation between at least one estimated parameter and at least one ideal parameter, wherein the at least one estimated parameter is computed from the regression model; and adjust at least one operating parameter of the LVAD based on the determined deviation. receive a plurality of pulmonary artery (PA) pressure measurements or PA trending data from the implantable cardiac electronic device; characterised in that the controller is further configured to: fit a regression model to the plurality of PA pressure measurements or PA trending data; determine a deviation between at least one estimated parameter and at least one ideal parameter, wherein the at least one estimated parameter is computed from the regression model; and adjust at least one operating parameter of the LVAD based on the determined deviation. fit a regression model to the plurality of PA pressure measurements or PA trending data; determine a deviation between at least one estimated parameter and at least one ideal parameter, wherein the at least one estimated parameter is computed from the regression model; and adjust at least one operating parameter of the LVAD based on the determined deviation.