mhurhangee/patent-ind-claim-en huggingface dataset:
A foam replacement for forming a strap comprising: a first surface comprising a plurality of first interconnected struts that define a plurality of first apertures through the first surface , wherein the first surface comprises a first region and at least one second region, wherein the first region is a central region and the at least one second region is an outer region disposed radially outwardly from the central region ; a second surface at least partially spaced from the first surface , the second surface comprising a plurality of second interconnected struts that define a plurality of second apertures through the second surface ; and one or more third struts disposed between the first surface and the second surface and coupled to at least one of the first surface and the second surface , wherein the first surface and the second surface define a cavity therebetween, wherein the one or more third struts are disposed within or adjacent the cavity , wherein the first surface and the second surface are formed as a unitary body, wherein a configuration of the first interconnected struts , the second interconnect struts, and the third struts are tunable to control a stiffness and ventilation of the strap such that the stiffness of the central region is less than the stiffness of the outer region and the ventilation of the central region is greater than the ventilation of the outer region , and wherein the foam replacement for forming a strap forms part of a backpack. a first surface comprising a plurality of first interconnected struts that define a plurality of first apertures through the first surface , wherein the first surface comprises a first region and at least one second region, wherein the first region is a central region and the at least one second region is an outer region disposed radially outwardly from the central region ; a second surface at least partially spaced from the first surface , the second surface comprising a plurality of second interconnected struts that define a plurality of second apertures through the second surface ; and one or more third struts disposed between the first surface and the second surface and coupled to at least one of the first surface and the second surface , wherein the first surface and the second surface define a cavity therebetween, wherein the one or more third struts are disposed within or adjacent the cavity , wherein the first surface and the second surface are formed as a unitary body, wherein a configuration of the first interconnected struts , the second interconnect struts, and the third struts are tunable to control a stiffness and ventilation of the strap such that the stiffness of the central region is less than the stiffness of the outer region and the ventilation of the central region is greater than the ventilation of the outer region , and wherein the foam replacement for forming a strap forms part of a backpack.
An adeno-associated virus (AAV) vector comprising a nucleic acid comprising (a) a nucleotide sequence encoding RP2 or a functional fragment thereof and (b) a 5' AAV2 Inverted Terminal Repeat (ITR) or a functional fragment thereof and a 3' AAV2 ITR or a functional fragment thereof, wherein (a) the nucleotide sequence encoding RP2 is under the transcriptional control of a rhodopsin kinase promoter and/or (b) the vector comprises a human β-globin polyadenylation signal or a functional fragment thereof, wherein the vector further comprises a cytomegalovirus (CMV)/human β-globin intron, wherein the vector is self-complementary and wherein the vector is an AAV8 or AAV9 vector. wherein the vector further comprises a cytomegalovirus (CMV)/human β-globin intron, wherein the vector is self-complementary and wherein the vector is an AAV8 or AAV9 vector.
An abnormal power supply voltage detection device (F1-1) comprising: a plurality of core power supply areas (F1-8-1,.., F1-8-4) connected by a first power supply voltage line (F1-9-A, F1-9-B) and a second power supply voltage line (F1-10) and an abnormal voltage output unit (F1-3) wherein at least one of the plurality of core power supply areas has an abnormal voltage detection unit (F1-2-1,..,F1-2-3), characterised in that the abnormal voltage detection unit is configured to monitor the voltage in the other core power supply areas through the first power supply voltage line (F1-9-A, F1-9-B), and upon detection of an abnormal voltage to transmit an abnormal voltage detection signal to the abnormal voltage output unit (F1-3) through the second power supply voltage line (F1-10). a plurality of core power supply areas (F1-8-1,.., F1-8-4) connected by a first power supply voltage line (F1-9-A, F1-9-B) and a second power supply voltage line (F1-10) and an abnormal voltage output unit (F1-3) wherein at least one of the plurality of core power supply areas has an abnormal voltage detection unit (F1-2-1,..,F1-2-3), characterised in that the abnormal voltage detection unit is configured to monitor the voltage in the other core power supply areas through the first power supply voltage line (F1-9-A, F1-9-B), and upon detection of an abnormal voltage to transmit an abnormal voltage detection signal to the abnormal voltage output unit (F1-3) through the second power supply voltage line (F1-10).
A turbofan engine comprising: a fan case ; and a strut apparatus for reducing deflection of the fan case , the fan case having a flange located at a forward end of the fan case; a first strut having a first end located proximate an aft side of the flange of the fan case; a second strut having a first end located proximate the aft side of the flange of the fan case, wherein each of the first end of the first strut and the first end of the second strut is located at a distance (D1) from the aft side of the flange, wherein the distance (D1) is selected to allow the fan case to bend or distort up to the distance (D1), and wherein in response to the fan case translating the distance (D1) at least one of the first strut or the second strut contacts the aft side of the flange and prevents the fan case from distorting beyond the distance (D1), an attachment bracket coupled to a second end of the first strut and to a second end of the second strut ; and a deflection resistant structure aft of the fan case, wherein the attachment bracket is coupled to the deflection resistant structure, and wherein the deflection resistant structure comprises at least one of a thurst reverser support or a pylon coupled to the turbofan engine. a fan case ; and a strut apparatus for reducing deflection of the fan case , the fan case having a flange located at a forward end of the fan case; a first strut having a first end located proximate an aft side of the flange of the fan case; a second strut having a first end located proximate the aft side of the flange of the fan case, wherein each of the first end of the first strut and the first end of the second strut is located at a distance (D1) from the aft side of the flange, wherein the distance (D1) is selected to allow the fan case to bend or distort up to the distance (D1), and wherein in response to the fan case translating the distance (D1) at least one of the first strut or the second strut contacts the aft side of the flange and prevents the fan case from distorting beyond the distance (D1), an attachment bracket coupled to a second end of the first strut and to a second end of the second strut ; and a deflection resistant structure aft of the fan case, wherein the attachment bracket is coupled to the deflection resistant structure, and wherein the deflection resistant structure comprises at least one of a thurst reverser support or a pylon coupled to the turbofan engine.
A safety control method for a gas water heater, comprising: detecting a rotational speed of an exhaust fan in the gas water heater; obtaining a set value for output power of the exhaust fan ; and determining a wind pressure situation at an air outlet of the exhaust fan according to the rotational speed and the set value for the output power, and adjusting the set value for the output power according to the wind pressure situation, the safety control method being characterised in that determining the wind pressure situation at an air outlet of the exhaust fan comprises: controlling the set value for the output power to be reduced by a first predetermined value when it is determined that the wind pressure situation is a low wind pressure situation; controlling the set value for the output power to keep unchanged when it is determined that the wind pressure situation is a medium wind pressure situation; and controlling the set value for the output power to be increased by a second predetermined value when it is determined that the wind pressure situation is a high wind pressure situation. detecting a rotational speed of an exhaust fan in the gas water heater; obtaining a set value for output power of the exhaust fan ; and determining a wind pressure situation at an air outlet of the exhaust fan according to the rotational speed and the set value for the output power, and adjusting the set value for the output power according to the wind pressure situation, the safety control method being characterised in that determining the wind pressure situation at an air outlet of the exhaust fan comprises: controlling the set value for the output power to be reduced by a first predetermined value when it is determined that the wind pressure situation is a low wind pressure situation; controlling the set value for the output power to keep unchanged when it is determined that the wind pressure situation is a medium wind pressure situation; and controlling the set value for the output power to be increased by a second predetermined value when it is determined that the wind pressure situation is a high wind pressure situation. controlling the set value for the output power to be reduced by a first predetermined value when it is determined that the wind pressure situation is a low wind pressure situation; controlling the set value for the output power to keep unchanged when it is determined that the wind pressure situation is a medium wind pressure situation; and controlling the set value for the output power to be increased by a second predetermined value when it is determined that the wind pressure situation is a high wind pressure situation.
A thermally conductive sheet obtained by dispersing, in a thermosetting resin comprising a silicone resin of addition reaction type, a secondary agglomerated particle obtained by agglomerating primary particles of scale-shaped boron nitride, wherein the secondary agglomerated particle has an average particle size of 50 μm or more and 120 μm or less, and a porosity of 51% or more and 60% or less, and a particle strength of the secondary agglomerated particle at a cumulative destruction rate of 63.2% is 0.2 MPa or more and 2.0 MPa or less, and a loading rate of the secondary agglomerated particle in the thermally conductive sheet is 50% by volume or more and 70% by volume or less, wherein the particle size, the particle porosity and the particle strength are measured as disclosed in the description.
Method for processing a carcass part of slaughtered poultry, this method comprising the following step: - performing a process on the carcass part using a processing device , in which the carcass part has a predefined position and orientation in relation to the processing device , during which processing at least a harvestable part of the carcass part is separated from the rest of the carcass part , characterized in that the method further comprises the steps of: - conveying the harvestable part to a tray using a feed device, where the orientation of the harvestable part relative to the feed device is known beforehand based on the orientation of the harvestable part relative to the processing device , wherein the tray serves as packaging, - depositing the harvestable part of the carcass part in the tray in a predefined position and in a predefined orientation. - performing a process on the carcass part using a processing device , in which the carcass part has a predefined position and orientation in relation to the processing device , during which processing at least a harvestable part of the carcass part is separated from the rest of the carcass part , characterized in that the method further comprises the steps of: - conveying the harvestable part to a tray using a feed device, where the orientation of the harvestable part relative to the feed device is known beforehand based on the orientation of the harvestable part relative to the processing device , wherein the tray serves as packaging, - depositing the harvestable part of the carcass part in the tray in a predefined position and in a predefined orientation.
A screen printing device for printing a flexible substrate band material in the endless format for producing a flexible band with printed electronics, wherein the screen printing device forms a processing station of a reel-to-reel system and comprises at least one screen printing unit , wherein the screen printing device is designed for a clocked printing in the endless format, wherein the screen printing unit includes at least one printing module and at least one printing table , wherein the screen printing device comprises at least one first and second band buffer unit (5.1, 5.2), wherein the first band buffer unit (5.1) is arranged in the feed direction (VR) upstream of the screen printing unit and wherein the second band buffer unit (5.2) is arranged in the feed direction (VR) downstream of the screen printing unit and wherein the band buffer units (5.1, 5.2) are configured to compensate a band length (L1, L2) of a band portion of the substrate band material situated between the band buffer units (5.1, 5.2), characterised in that the screen printing device further comprises at least one feed unit , wherein the feed unit is designed for the clocked moving of the substrate band material in at least one feed direction (VR) and for pre-positioning a respective print portion (2.1) of the substrate band material relative to the screen printing unit , and in that the at least one printing table is designed as vacuum printing table , wherein the vacuum printing table of the screen printing unit is designed so as to be adjustable in height and equipped in such a manner that the vacuum printing table , by moving in the vertical direction (z), can be moved out of a rest position (P1) into at least one working position (P2), wherein a top side (7.1) of the vacuum printing table provided for supporting the substrate band material is arranged in the rest position (P1) in a horizontally oriented first lower plane (E1) and in the working position (P2) in a horizontally oriented second upper plane (E2).
An apparatus for heating a medium in two heat exchangers, connected in series, by way of heat transfer from a heat-carrier medium to the medium to be heated, comprising a low-temperature heat exchanger and a high-temperature heat exchanger and also a salt melt as heat-carrier medium, wherein the heat exchangers are connected to one another by way of a connecting line in such a way that the heat-carrier medium flows through the high-temperature heat exchanger and the low-temperature heat exchanger in succession, wherein at least one holding container is arranged in the connecting line, wherein the holding container is configured to provide a sufficient amount of time for the heat-transfer medium to be regenerated.
A portal monitoring system for detecting the presence of metallic objects passing through a portal , comprising: a first length of optical fibre mechanically coupled to a material whose physical characteristics vary dependent on an ambient magnetic field, the optical fibre being arranged in the vicinity of the portal being monitored, wherein the portal defines a passage through which people and/or objects may pass and wherein the first length of optical fibre is deployed along at least two sides of the passage defined by the portal ; a fibre optic interrogator adapted to provide distributed sensing on the optical fibre to provide measurement data from each of a plurality of sensing portions of said fibre at each of a plurality of times, wherein said measurement data comprises radiation backscattered from the plurality of sensing portions; and a data analyser adapted to process said measurement data to detect signals characteristic of a disturbance in the magnetic field along the optical fibre . a first length of optical fibre mechanically coupled to a material whose physical characteristics vary dependent on an ambient magnetic field, the optical fibre being arranged in the vicinity of the portal being monitored, wherein the portal defines a passage through which people and/or objects may pass and wherein the first length of optical fibre is deployed along at least two sides of the passage defined by the portal ; a fibre optic interrogator adapted to provide distributed sensing on the optical fibre to provide measurement data from each of a plurality of sensing portions of said fibre at each of a plurality of times, wherein said measurement data comprises radiation backscattered from the plurality of sensing portions; and a data analyser adapted to process said measurement data to detect signals characteristic of a disturbance in the magnetic field along the optical fibre .
A portable temperature controlled container comprising: a body having an outer shell , an inner shell and an insulation layer therebetween, the body defining a storage compartment and an opening to permit access to the storage compartment; an insulated lid selectively covering the opening in the body; a first thermoelectric device in thermal communication with the storage compartment; a first phase change material in thermal communication with the first thermoelectric device ; a rechargeable battery ; a temperature sensor operable to measure the temperature inside the storage compartment; a controller in communication with the thermoelectric device and the temperature sensor, the controller being operable to control the thermoelectric device to regulate the temperature inside the storage compartment ; and in which the first thermoelectric device is operable to remove energy in the form of heat from the storage compartment and transfer that energy in the form of heat to the first phase change material ; wherein there is provided a second thermoelectric device controlled by the controller, a heat sink in thermal communication with the second thermoelectric device, characterized by an air passageway through the body, means to close the air passageway through the body, and a fan operable to deliver airflow through the air passageway over the heat sink. a body having an outer shell , an inner shell and an insulation layer therebetween, the body defining a storage compartment and an opening to permit access to the storage compartment; an insulated lid selectively covering the opening in the body; a first thermoelectric device in thermal communication with the storage compartment; a first phase change material in thermal communication with the first thermoelectric device ; a rechargeable battery ; a temperature sensor operable to measure the temperature inside the storage compartment; a controller in communication with the thermoelectric device and the temperature sensor, the controller being operable to control the thermoelectric device to regulate the temperature inside the storage compartment ; and in which the first thermoelectric device is operable to remove energy in the form of heat from the storage compartment and transfer that energy in the form of heat to the first phase change material ; wherein there is provided a second thermoelectric device controlled by the controller, a heat sink in thermal communication with the second thermoelectric device, characterized by an air passageway through the body, means to close the air passageway through the body, and a fan operable to deliver airflow through the air passageway over the heat sink.
Device for limiting a pitching movement between a bogie of a rail vehicle and a wagon body supported on the bogie , with - a stop which is fastenable to the bogie and - a counter stop which is fastenable to the wagon body , wherein the stop forms a stop surface which faces the counter stop and enters into contact with the counter stop during the operation of the device , - in which the counter stop is configured in the form of a slotted link in a side view, wherein the counter stop can be attached to the wagon body transversely with respect to the direction of travel and has a ramp-shaped stop contour referred to in this transverse direction as a connecting link, - in which the stop is of rib-shaped design, wherein the stop surface is formed on the rib tip which faces the counter stop during operation, - in which the stop has a spring , and in which the stop has an irreversibly deformable energy absorption element , wherein the irreversible force element is of rib-shaped design and is attached to a U profile , between the free limbs of which the spring extends. - a stop which is fastenable to the bogie and - a counter stop which is fastenable to the wagon body , wherein the stop forms a stop surface which faces the counter stop and enters into contact with the counter stop during the operation of the device , - in which the counter stop is configured in the form of a slotted link in a side view, wherein the counter stop can be attached to the wagon body transversely with respect to the direction of travel and has a ramp-shaped stop contour referred to in this transverse direction as a connecting link, - in which the stop is of rib-shaped design, wherein the stop surface is formed on the rib tip which faces the counter stop during operation, - in which the stop has a spring , and in which the stop has an irreversibly deformable energy absorption element , wherein the irreversible force element is of rib-shaped design and is attached to a U profile , between the free limbs of which the spring extends.