mhurhangee/patent-ind-claim-en huggingface dataset:
A system for use of a pharmaceutical product, comprising: a container accommodating a pharmaceutical product, the container being a universal container configured to interface with a plurality of medical devices (104; 206; 208) of different types and comprising a wireless communication unit and a memory which stores pairing-specific information for each of the plurality of medical devices (104; 206; 208), wherein the types include a syringe type, an automated injection device type, a patch pump device type, and a reconstitution device type; and a medical device (104; 206; 208) enabled for wireless communication with the wireless communication unit of the container and configured to read the pairing-specific information from the memory of the container to verify whether the medical device (104; 206; 208) is one of the plurality of medical devices (104; 206; 208) for which pairing-specific information is stored in the memory of the container and whether the container is thus permitted to be used by the medical device (104; 206; 208), wherein the pairing-specific information comprises an identification of the medical device (104; 206; 208) and at least one control parameter, and wherein the identification of the medical device and the at least one control parameter are specific to a device type of the medical device (104; 206; 208). a container accommodating a pharmaceutical product, the container being a universal container configured to interface with a plurality of medical devices (104; 206; 208) of different types and comprising a wireless communication unit and a memory which stores pairing-specific information for each of the plurality of medical devices (104; 206; 208), wherein the types include a syringe type, an automated injection device type, a patch pump device type, and a reconstitution device type; and a medical device (104; 206; 208) enabled for wireless communication with the wireless communication unit of the container and configured to read the pairing-specific information from the memory of the container to verify whether the medical device (104; 206; 208) is one of the plurality of medical devices (104; 206; 208) for which pairing-specific information is stored in the memory of the container and whether the container is thus permitted to be used by the medical device (104; 206; 208), wherein the pairing-specific information comprises an identification of the medical device (104; 206; 208) and at least one control parameter, and wherein the identification of the medical device and the at least one control parameter are specific to a device type of the medical device (104; 206; 208).
A method for managing a service cartridge for an inkjet printhead, wherein the service cartridge comprises a printing fluid storage container for receiving printing fluid discharged from the printhead and a web wipe intended to be advanced a predetermined length for performing a wiping operation on the printhead, the method comprising: monitoring an amount of discharged printing fluid into the printing fluid storage container; monitoring an amount of consumed web wipe; and causing that in a subsequent wiping operation the web wipe is advanced a length that is higher than the predetermined length, if the ratio of the amount of discharged printing fluid to the capacity of the printing fluid storage container is higher than the ratio of the amount of consumed web wipe to the total length of the web wipe. monitoring an amount of discharged printing fluid into the printing fluid storage container; monitoring an amount of consumed web wipe; and causing that in a subsequent wiping operation the web wipe is advanced a length that is higher than the predetermined length, if the ratio of the amount of discharged printing fluid to the capacity of the printing fluid storage container is higher than the ratio of the amount of consumed web wipe to the total length of the web wipe.
A reversibly deformable artificial cornea comprising: a monolithic body having a diameter between 4 mm and 10 mm comprising a center optic (112; 312) surrounded by a rim (114; 314), wherein the center optic (112; 312) has a diameter in the range from 3 mm to 9 mm and a optic height in the range from 200μm to 800μm and the rim (114; 314) has a width in the range from 0.5 mm to 4.5 mm and a median thickness in the range from 50μm to 200μm wherein the monolithic body is comprised of a polymeric hydrogel having a Young's modulus in the range from 0.3 MPa to 100 MPa when fully hydrated; and, wherein a rim (114; 314) which surrounds the center optic (112; 312) is discontinuous. a monolithic body having a diameter between 4 mm and 10 mm comprising a center optic (112; 312) surrounded by a rim (114; 314), wherein the center optic (112; 312) has a diameter in the range from 3 mm to 9 mm and a optic height in the range from 200μm to 800μm and the rim (114; 314) has a width in the range from 0.5 mm to 4.5 mm and a median thickness in the range from 50μm to 200μm wherein the monolithic body is comprised of a polymeric hydrogel having a Young's modulus in the range from 0.3 MPa to 100 MPa when fully hydrated; and, wherein a rim (114; 314) which surrounds the center optic (112; 312) is discontinuous.
An assembly for a gas turbine engine , comprising: an outer structure ; an inner structure within the outer structure , the inner structure including a port ; a fluid transfer tube including an inner tube end , an outer tube end , an inner coupling and an outer coupling , the fluid transfer tube extending from the inner tube end through a bore of the shield and at least into the port to the outer tube end , the inner coupling disposed at the inner tube end and mated with the inner structure through a cone seal interface , and the outer coupling disposed at the outer tube end and attached to the outer structure ; and a shield including a shield mount and a sleeve , characterized in having the shield mount attached to the outer structure , the sleeve extending from the shield mount through an aperture in the outer structure to a distal end of the shield , and the sleeve mated with the port at the distal end through a slip joint interface where a cylindrical sleeve surface of the sleeve contacts a cylindrical port surface of the port . an outer structure ; an inner structure within the outer structure , the inner structure including a port ; a fluid transfer tube including an inner tube end , an outer tube end , an inner coupling and an outer coupling , the fluid transfer tube extending from the inner tube end through a bore of the shield and at least into the port to the outer tube end , the inner coupling disposed at the inner tube end and mated with the inner structure through a cone seal interface , and the outer coupling disposed at the outer tube end and attached to the outer structure ; and a shield including a shield mount and a sleeve , characterized in having the shield mount attached to the outer structure , the sleeve extending from the shield mount through an aperture in the outer structure to a distal end of the shield , and the sleeve mated with the port at the distal end through a slip joint interface where a cylindrical sleeve surface of the sleeve contacts a cylindrical port surface of the port .
A composite structure fabrication system , comprising: a plurality of ply carriers , wherein each ply carrier of the plurality of ply carriers defines a ply support surface configured to temporarily support at least one ply segment ; an elongate forming mandrel that defines an elongate ply forming surface , wherein the elongate ply forming surface is shaped to define a surface contour of a composite structure and is configured to receive a plurality of ply segments to define a plurality of plies of composite material that at least partially defines the composite structure ; a carrier transfer device configured to selectively convey a selected ply carrier of the plurality of ply carriers from a ply kitting area to an intermediate location and to return the selected ply carrier to the ply kitting area ; and a forming machine configured to receive the selected ply carrier at the intermediate location , wherein the forming machine is an automated forming machine including a forming machine translation device configured to selectively translate the forming machine to a selected location along a length of the elongate forming mandrel , wherein the forming machine is further configured to deform the selected ply carrier and a respective ply segment over a selected portion of the elongate ply forming surface, and to separate the selected ply carrier from the respective ply segment such that the respective ply segment is supported by the selected portion of the elongate ply forming surface. a plurality of ply carriers , wherein each ply carrier of the plurality of ply carriers defines a ply support surface configured to temporarily support at least one ply segment ; an elongate forming mandrel that defines an elongate ply forming surface , wherein the elongate ply forming surface is shaped to define a surface contour of a composite structure and is configured to receive a plurality of ply segments to define a plurality of plies of composite material that at least partially defines the composite structure ; a carrier transfer device configured to selectively convey a selected ply carrier of the plurality of ply carriers from a ply kitting area to an intermediate location and to return the selected ply carrier to the ply kitting area ; and a forming machine configured to receive the selected ply carrier at the intermediate location , wherein the forming machine is an automated forming machine including a forming machine translation device configured to selectively translate the forming machine to a selected location along a length of the elongate forming mandrel , wherein the forming machine is further configured to deform the selected ply carrier and a respective ply segment over a selected portion of the elongate ply forming surface, and to separate the selected ply carrier from the respective ply segment such that the respective ply segment is supported by the selected portion of the elongate ply forming surface.
A method performed by transmitter apparatus , the transmitter apparatus being provided with a configured grant retransmission counter, CG-ReC, the method comprising: - incrementing or decrementing or toggling the CG-ReC when a new transmission of a packet is performed to a receiver apparatus, wherein a packet includes one or more transport blocks; - in case of a retransmission or an incremental redundancy transmission of the same packet to said receiver apparatus, maintaining the CG-ReC unchanged, where a retransmission is due to channel failure, decoding failure, or LBT failure; - incrementing or decrementing or toggling the CG-ReC when a transmission of a new packet, being different from said packet, is transmitted to the receiver apparatus; - incrementing or decrementing or toggling said CG-ReC by one or more depending on if a counting criteria is performed on a transport block level or based on a number of erroneous code block group(s); and - generating a retransmission assignment indicator, ReAl, signal to be sent to the receiver apparatus, wherein the ReAl signal conveys the value of the CG-ReC from which the receiver, depending on the criteria, derives which code block groups are erroneous or which transport block are erroneous. - incrementing or decrementing or toggling the CG-ReC when a new transmission of a packet is performed to a receiver apparatus, wherein a packet includes one or more transport blocks; - in case of a retransmission or an incremental redundancy transmission of the same packet to said receiver apparatus, maintaining the CG-ReC unchanged, where a retransmission is due to channel failure, decoding failure, or LBT failure; - incrementing or decrementing or toggling the CG-ReC when a transmission of a new packet, being different from said packet, is transmitted to the receiver apparatus; - incrementing or decrementing or toggling said CG-ReC by one or more depending on if a counting criteria is performed on a transport block level or based on a number of erroneous code block group(s); and - generating a retransmission assignment indicator, ReAl, signal to be sent to the receiver apparatus, wherein the ReAl signal conveys the value of the CG-ReC from which the receiver, depending on the criteria, derives which code block groups are erroneous or which transport block are erroneous.
Combustion chamber assembly unit for a fuel-operated vehicle heater, comprising a combustion chamber housing with a combustion chamber defined by a circumferential wall and by a bottom area ; wherein the bottom area comprises an evaporator medium carrier and a porous evaporator medium on a side of the evaporator medium carrier facing the combustion chamber , a flame tube , which follows the circumferential wall in the direction of a housing longitudinal axis (L) and encloses a waste gas flow space open in the direction of the housing longitudinal axis (L), and a flame diaphragm with a flow-through opening , wherein a waste gas backflow space is formed between the flame tube and a housing enclosing said flame tube and a waste gas return opening device is provided in the axial area of the flame diaphragm for returning combustion waste gases flowing in the waste gas backflow space into the combustion chamber or/and into the waste gas flow space, characterized in that the combustion waste gases leaving the combustion chamber enter the waste gas flow space in the area of the flame diaphragm and in that the flame diaphragm defines a waste gas transfer space together with the flame tube or/and with the circumferential wall , and that the waste gas return opening device comprises at least one first waste gas return opening connecting the waste gas backflow space to the waste gas transfer space and at least one second waste gas return opening connecting the waste gas transfer space to the combustion chamber or/and to the waste gas flow space .
A tracked vehicle comprising a cab and at least one track that extends along a direction of travel (D) of the vehicle and comprises a plurality of bars transverse to the direction of travel (D) and preferably made of metal, a chassis connected to the tracks and to the cab ; the tracked vehicle being characterized in that it comprises a noise reducing system comprising a control unit and an acoustic wave emitter connected to the control unit for being controlled by the control unit , the noise reducing system comprising an acoustic input and being configured to emit an acoustic equalisation wave, phase shifted with respect to the noise and determined on the basis of the acoustic input , to reduce the noise, in particular the noise generated by the tracks ; the noise reducing system is preferably housed in the cab ; wherein the plurality of transverse bars are spaced from one another by a given pitch (P), the noise reducing system being configured to define the frequency (f) of the acoustic equalisation wave on the basis of the given pitch (P); the pitch (P) is preferably in the range from 100 mm to 160 mm, more preferably from 118 mm to 144 mm.
A tank for containing fluids exiting accidentally from a cabinet provided with a pair of flanks that are connected behind to a back and connected above and below respectively to a top and to a bottom to define a parallelepiped-shaped box structure open on one side ; said side being closable by a pair of wings each hinged on a respective flank ; the tank comprises: - a box body , defining a containment volume (V) and comprising a base from which a pair of lateral walls that are parallel to one another, a front wall , joining on one side the pair of lateral walls , and a rear wall , joining on the opposite side the pair of lateral walls extend; characterized in that said front wall ends with a fold , angled with respect to the front wall and facing the pair of wings in a use configuration in which said tank is coupled with said cabinet , extending along an oblique direction from the front wall to the base so as to define a conveying slide for conveying the liquids exiting from the cabinet to inside the tank . - a box body , defining a containment volume (V) and comprising a base from which a pair of lateral walls that are parallel to one another, a front wall , joining on one side the pair of lateral walls , and a rear wall , joining on the opposite side the pair of lateral walls extend;
A shield plate for a concentrator photovoltaic power generation module that cuts off solar rays in a region other than a plurality of power generation elements included in the concentrator photovoltaic power generation module, the shield plate comprising: a main plate including a first surface (8a1) and a second surface (8a2) opposed to each other, the main plate having a quadrangular shape; and a bent portion bent to rise from each of four sides of the quadrangular shape of the main plate toward the first surface, the main plate being provided with a plurality of transmission holes that pass through from the first surface to the second surface, solar rays being transmitted through the plurality of transmission holes toward the plurality of power generation elements, characterized in that the main plate is provided with a first insertion hole (8d1) that passes through from the first surface to the second surface, the first insertion hole being larger in dimension than the plurality of transmission holes. a main plate including a first surface (8a1) and a second surface (8a2) opposed to each other, the main plate having a quadrangular shape; and a bent portion bent to rise from each of four sides of the quadrangular shape of the main plate toward the first surface, the main plate being provided with a plurality of transmission holes that pass through from the first surface to the second surface, solar rays being transmitted through the plurality of transmission holes toward the plurality of power generation elements, characterized in that the main plate is provided with a first insertion hole (8d1) that passes through from the first surface to the second surface, the first insertion hole being larger in dimension than the plurality of transmission holes.
A method for manufacturing a complete door assembly consisting of door frame elements made of hydrophobized MDF and a door leaf panel of framework structure with a structured lightweight filling, said door leaf panel having stiles and rails made of hydrophobized MDF covered at both sides with a hydrophobized HDF board, said door frame elements and door leaf panel wrapped with a wrapping material with the use of a hot-melt adhesive, providing raw door frame elements milled of hydrophobized MDF board and adjusted dimensionally mating with said panel , which door frame elements comprise two vertical columns (2.1) and a cross-beam (2.2); wherein the door frame elements and door leaf panel are independently wrapped with a wrapping material being substantially water-unabsorbable using a hot-melt reactive polyurethane adhesive applied at 60-80 g/m 2 with a nozzle assembly, at a temperature of 110-130°C; and leaving thus wrapped a door leaf panel and door frame elements for crosslinking of the adhesive to obtain a complete door assembly of improved water-durability, featured by lack of shape deformation or substantial delamination of the wrapping material from the surface of the MDF/HDF material under the conditions of high humidity, changeable humidity and/or at least 24-hour exposure to liquid water.
A battery storage rack comprising at least one storage space, a battery located in the storage space, the storage space being provided with a fluid cooling device for cooling the battery, the fluid cooling device comprises: a first bracket mounted on the battery storage rack ; a fluid cooling terminal unit provided with a first connector and a second connector in fluid communication with each other, and a third connector and a fourth connector in fluid communication with each other, the first connector and the third connector being respectively in communication with an output port and an input port of a pipeline for supplying a fluid; a second bracket arranged adjacent to the first bracket , the fluid cooling terminal unit being mounted on the second bracket ; characterized in that the fluid cooling device further comprises: a driving unit configured for providing a driving force to move the first bracket and the second bracket relative to each other so as to cause the second connector and the fourth connector to engage with a fluid inlet and a fluid outlet provided on the battery respectively to form a fluid circulation circuit for cooling the battery, or to cause the second connector and the fourth connector to disengage from the fluid inlet and the fluid outlet respectively. a first bracket mounted on the battery storage rack ; a fluid cooling terminal unit provided with a first connector and a second connector in fluid communication with each other, and a third connector and a fourth connector in fluid communication with each other, the first connector and the third connector being respectively in communication with an output port and an input port of a pipeline for supplying a fluid; a second bracket arranged adjacent to the first bracket , the fluid cooling terminal unit being mounted on the second bracket ; characterized in that the fluid cooling device further comprises: a driving unit configured for providing a driving force to move the first bracket and the second bracket relative to each other so as to cause the second connector and the fourth connector to engage with a fluid inlet and a fluid outlet provided on the battery respectively to form a fluid circulation circuit for cooling the battery, or to cause the second connector and the fourth connector to disengage from the fluid inlet and the fluid outlet respectively.
A silicon-based opto-electronic circuit formed on a silicon substrate and including at least an optical receiving component, the circuit comprising a short optical waveguide of a predetermined length formed in the silicon substrate for receiving an incoming, received optical signal, the incoming, received optical signal exhibiting both transverse electric, TE, and transverse magnetic, TM, components; and a photodetecting device for capturing the received optical signal from the optical waveguide and converting the received optical signal into an electrical equivalent, characterized in that the photodetecting device is disposed contiguous to and along the short optical waveguide , after the predetermined length of the short optical waveguide , wherein the predetermined length of the short optical waveguide is selected such that polarization dependent loss associated with the TM component of the received optical signal is negligible.