mhurhangee/patent-ind-claim-en huggingface dataset:
A cabin air compressor assembly comprising: a cabin air compressor disposed at a compressor inlet ; a cabin air compressor motor operably connected to the cabin air compressor ; at least one cooling flow inlet disposed at a first end of the cabin air compressor motor substantially opposite a second end whereat the cabin air compressor is disposed, the at least one cooling flow inlet configured to direct a cooling flow across the cabin air compressor motor ; and a blower operably connected to the cabin air compressor , the blower configured to urge a cooling flow from across the cabin air compressor motor toward a cooling flow outlet, thereby increasing the cooling flow across the cabin air compressor motor ; characterized in that : the blower comprises a plurality of blower blades affixed to a cabin air compressor rotor , and in that the plurality of blower blades extend at least partially across an exit channel defined by the cabin air compressor rotor and the cabin air compressor motor ; and the at least one cooling flow inlet is configured to direct at least a portion of the cooling flow toward the cabin air compressor motor from the compressor inlet . a cabin air compressor disposed at a compressor inlet ; a cabin air compressor motor operably connected to the cabin air compressor ; at least one cooling flow inlet disposed at a first end of the cabin air compressor motor substantially opposite a second end whereat the cabin air compressor is disposed, the at least one cooling flow inlet configured to direct a cooling flow across the cabin air compressor motor ; and a blower operably connected to the cabin air compressor , the blower configured to urge a cooling flow from across the cabin air compressor motor toward a cooling flow outlet, thereby increasing the cooling flow across the cabin air compressor motor ; characterized in that : the blower comprises a plurality of blower blades affixed to a cabin air compressor rotor , and in that the plurality of blower blades extend at least partially across an exit channel defined by the cabin air compressor rotor and the cabin air compressor motor ; and the at least one cooling flow inlet is configured to direct at least a portion of the cooling flow toward the cabin air compressor motor from the compressor inlet . the blower comprises a plurality of blower blades affixed to a cabin air compressor rotor , and in that the plurality of blower blades extend at least partially across an exit channel defined by the cabin air compressor rotor and the cabin air compressor motor ; and the at least one cooling flow inlet is configured to direct at least a portion of the cooling flow toward the cabin air compressor motor from the compressor inlet .
A cartridge for use with a respiratory humidifier, the cartridge comprising: a housing comprising a rear surface and at least one securing member extending upwardly beyond an upper extreme of the rear surface of the housing; a compartment defined by the housing, an electrical component positioned within the compartment, an electrical connector connected to the electrical component, the rear surface of the housing defining an opening through which the electrical connector is exposed; and a first outwardly extending pin extending laterally outward beyond an immediately adjacent portion of the housing and a second outwardly extending pin extending laterally outward beyond an immediately adjacent portion of the housing, the first outwardly extending pin and the second outwardly extending pin being deflectable inwardly toward each other, the electrical connector being laterally generally interposed between the first outwardly extending pin and the second outwardly extending pin . a housing comprising a rear surface and at least one securing member extending upwardly beyond an upper extreme of the rear surface of the housing; a compartment defined by the housing, an electrical component positioned within the compartment, an electrical connector connected to the electrical component, the rear surface of the housing defining an opening through which the electrical connector is exposed; and a first outwardly extending pin extending laterally outward beyond an immediately adjacent portion of the housing and a second outwardly extending pin extending laterally outward beyond an immediately adjacent portion of the housing, the first outwardly extending pin and the second outwardly extending pin being deflectable inwardly toward each other, the electrical connector being laterally generally interposed between the first outwardly extending pin and the second outwardly extending pin .
A condenser assembly comprising: a condenser ; means for cooling the condenser; and a condenser bag removably coupled with the condenser, the condenser bag bounding a first compartment , the condenser bag having a first gas inlet port , a first gas exhaust port and a tubular port through which condensed fluid is able to flow out of said bag; each of said ports being in fluid communication with the first compartment, characterized in that the condenser comprises: a condenser body having a first side face and an opposing second side face , the condenser body bounding a channel extending therein and communicating with the means for cooling the condenser; and a first door movably mounted on the condenser body, at least a portion of the condenser bag being disposed between the condenser body and the first door so that at least a portion of the condenser bag is positioned adjacent the first side face of the condenser body. a condenser ; means for cooling the condenser; and a condenser bag removably coupled with the condenser, the condenser bag bounding a first compartment , the condenser bag having a first gas inlet port , a first gas exhaust port and a tubular port through which condensed fluid is able to flow out of said bag; each of said ports being in fluid communication with the first compartment, a condenser body having a first side face and an opposing second side face , the condenser body bounding a channel extending therein and communicating with the means for cooling the condenser; and a first door movably mounted on the condenser body, at least a portion of the condenser bag being disposed between the condenser body and the first door so that at least a portion of the condenser bag is positioned adjacent the first side face of the condenser body.
A wind turbine power generation system comprising: a rotor shaft coupled to an electrical generator configured to generate a power output at a first AC voltage level; a converter system configured to convert the power output of the generator at the first AC voltage level to a converter power output at a second AC voltage level; a transformer configured to convert the converter system power output at the second AC voltage level to a generation system power output at a third AC voltage level; wherein the converter system comprises a machine-side converter , a line-side converter and a DC-link ; wherein the transformer is an online tap changer transformer (OLTC), and wherein the electrical generator is a permanent-magnet generator or is a wound-field synchronous generator; characterised in that the machine-side converter is a line-commutated rectifier (A); and wherein the online tap changer transformer is controlled in dependence on at least one of: generator speed and wind speed, so to reduce the line-side converter AC voltage and in turn the DC-link voltage, so the line-commutated rectifier can supply the requested power at the particular wind speed, generator speed and grid AC voltage, in particular at low wind speed or low generator speeds. a rotor shaft coupled to an electrical generator configured to generate a power output at a first AC voltage level; a converter system configured to convert the power output of the generator at the first AC voltage level to a converter power output at a second AC voltage level; a transformer configured to convert the converter system power output at the second AC voltage level to a generation system power output at a third AC voltage level; wherein the converter system comprises a machine-side converter , a line-side converter and a DC-link ; wherein the transformer is an online tap changer transformer (OLTC), and wherein the electrical generator is a permanent-magnet generator or is a wound-field synchronous generator; characterised in that the machine-side converter is a line-commutated rectifier (A); and wherein the online tap changer transformer is controlled in dependence on at least one of: generator speed and wind speed, so to reduce the line-side converter AC voltage and in turn the DC-link voltage, so the line-commutated rectifier can supply the requested power at the particular wind speed, generator speed and grid AC voltage, in particular at low wind speed or low generator speeds.
A container for PCM, wherein said container is produced using blow-moulding and has the shape of a rectangular panel with a longitudinal axis, a front and back facing wall , end walls and longitudinal walls enclosing a container cavity, said blow-moulded container further comprising a filling opening and said container cavity is divided into a series of elongated compartments and comprising partitioning walls extending between said front and back facing wall , characterized in that said partitioning walls comprise barriers that extend away from the longitudinal direction and away from the partitioning wall , in at least one transverse direction, in particular the barriers extend between 1 and 4 mm, and said partitioning walls have a mutual distance of less than 2 cm, and wherein said front facing wall and back facing wall have a mutual distance of less than 3 cm.
A monomer composition comprising cationically polymerizable monomers, wherein the monomer composition contains a monofunctional cationically polymerizable monomer or monomers in a content of 20 to 70 weight percent of a total weight of the cationically polymerizable monomer composition, wherein the cationically polymerizable monomers contain at least a vinyl ether compound (A), and further an oxetane compound (B) and/or an epoxy compound (C), wherein the vinyl ether compound (A) contains a vinyl ether compound (a) having a cyclic ether skeleton and a vinyl ether compound (a') having a chain hydrocarbon skeleton in a total amount of 10 to 40 weight percent of a total weight of the cationically polymerizable monomers in the monomer composition, wherein the vinyl ether compound (a) having a cyclic ether skeleton comprises at least one of a compound represented by Formula (a-1) and a compound represented by Formula (a-2), and wherein the at least one of the compound represented by Formula (a-1) and the compound represented by Formula (a-2) is present in a content of from 5 weight percent to less than 30 weight percent of a total weight of the monomer composition.
A needle , comprising: a cannula having proximal end , a distal end , a longitudinal axis extending between the proximal and distal ends, an elongate lumen extending axially therethrough along the longitudinal axis, and a multi-beveled point at the distal end, wherein the multi-beveled point includes a proximal bevel , a pair of intermediate bevels , and a pair of distal bevels , the proximal bevel being formed at a first angle of inclination relative to the longitudinal axis, the pair of intermediate bevels being formed at a second angle of inclination relative to the longitudinal axis, and the pair of distal bevels being formed at a third angle of inclination and differing angles of rotation relative to a vertical axis, characterized in that the second angle of inclination is substantially different from the first angle of inclination, wherein at least one smooth transverse transition zone is formed between adjacent ones of the proximal, intermediate, and distal bevels, wherein the third angle of inclination is substantially different from the second angle of inclination. a cannula having proximal end , a distal end , a longitudinal axis extending between the proximal and distal ends, an elongate lumen extending axially therethrough along the longitudinal axis, and a multi-beveled point at the distal end, wherein the multi-beveled point includes a proximal bevel , a pair of intermediate bevels , and a pair of distal bevels , the proximal bevel being formed at a first angle of inclination relative to the longitudinal axis, the pair of intermediate bevels being formed at a second angle of inclination relative to the longitudinal axis, and the pair of distal bevels being formed at a third angle of inclination and differing angles of rotation relative to a vertical axis, characterized in that the second angle of inclination is substantially different from the first angle of inclination, wherein at least one smooth transverse transition zone is formed between adjacent ones of the proximal, intermediate, and distal bevels, wherein the third angle of inclination is substantially different from the second angle of inclination.
Conditioning unit for a conditioning system of a test bench for conditioning an operating medium of a test object circuit (PK) of a test object (P) mounted on the test bench to a predefined setpoint temperature (T_SOLL), characterized in that at least one mixing unit supply connection and at least one mixing unit outlet connection (5, 5a-5c) are provided on the conditioning unit for connecting the conditioning unit to a mixing unit which can be fluidically integrated into the test object circuit (PK), wherein the at least one mixing unit supply connection and the at least one mixing unit outlet connection (5, 5a-5c) are fluidically connected within the conditioning unit to form a part of a conditioning circuit (KK) for the operating medium, wherein a main flow line of the conditioning circuit (KK) connected to the at least one mixing unit supply connection is divided in the conditioning unit into at least two partial flow lines (7a-7c), wherein each partial flow line (7a-7c) is connected with the at least one mixing unit outlet connection (5, 5a-5c), wherein the operating medium is able to be conditioned in a partial flow line to a predefined conditioning temperature (T1, T2), and the at least one further partial flow line is able to be flowed through by unconditioned operating medium having a relatively higher or lower neutral temperature (T3) compared to the conditioning temperature (T1, T2), wherein a flow rate of the operating medium in the at least two partial flow lines (7a-7c) is able to be adjusted as a function of the predefined setpoint temperature (T_SOLL) in the test object circuit (PK).
A measurement application device comprising: at least one signal acquisition interface configured to acquire an analog input signal and output a digital input signal; a first decimator for each signal acquisition interface, each one of the first decimators being coupled to the respective one of the signal acquisition interfaces, each one of the first decimators being configured to reduce the number of samples of the respective digital input signal and output a first decimated digital input signal; at least one second decimator for each signal acquisition interface, each one of the second decimators being coupled to the respective one of the signal acquisition interfaces, each one of the second decimators being configured to reduce the number of samples of the respective digital input signal and output a second decimated digital input signal; characterized by at least one decoder for each one of the second decimators, each one of the decoders being coupled to the respective one of the second decimators, and each one of the decoders being configured to decode the respective second decimated digital input signal according to a respective protocol and provide a respective decoded input signal. at least one signal acquisition interface configured to acquire an analog input signal and output a digital input signal; a first decimator for each signal acquisition interface, each one of the first decimators being coupled to the respective one of the signal acquisition interfaces, each one of the first decimators being configured to reduce the number of samples of the respective digital input signal and output a first decimated digital input signal; at least one second decimator for each signal acquisition interface, each one of the second decimators being coupled to the respective one of the signal acquisition interfaces, each one of the second decimators being configured to reduce the number of samples of the respective digital input signal and output a second decimated digital input signal; characterized by at least one decoder for each one of the second decimators, each one of the decoders being coupled to the respective one of the second decimators, and each one of the decoders being configured to decode the respective second decimated digital input signal according to a respective protocol and provide a respective decoded input signal.
Vehicle box consisting of a base that includes a central tunnel , a lateral longeron that both extend in a longitudinal direction (X) to the body, and a floor that has an inner face facing the body, the floor that extends between the central tunnel and the longeron , the base 1) also comprising a first support of seat extending lengthwise along the tunnel and the inner face of the floor , fixed to the tunnel and the floor , a second support of seat extending lengthwise along the longeron and the inner face of the floor , fixed to the longeron and to the floor in respect of the first bracket , the said first and second supports each having a higher face distant from the inner face of the floor , so that the first and second supports are protruding from the inner face of the floor , the upper faces having attachment interfaces for fixing a seat, the body being characterized by a reinforcement cross extending between the two supports , at a distance from the floor , fixed by each end to each of the supports .
A support device for board panels characterized by comprising: a connecting rod with a first end and a second end ; and a front bulkhead , which has a first portion disposed in a preceding position relative to said connecting rod and a second portion disposed on the connecting rod , wherein said first portion is connected to said second portion; and a rear bulkhead , which is disposed in a posterior position relative to said connecting rod and is connected to said second portion of the front bulkhead ; and an intermediate bulkhead , which is simultaneously connected perpendicularly to a lower face of the front bulkhead , connected perpendicularly to a lower face of the connecting rod and connected perpendicularly to a lower face of the rear bulkhead ; and an element connecting to a surface including an orifice , which is connected to the rear bulkhead ; wherein a first gap is bordered by a portion of the lower face of the front bulkhead , by a portion of the upper face of the connecting rod , by a portion of the lower face of the rear bulkhead and by a portion of the right face of the intermediate bulkhead ; and wherein a second gap is bordered by a portion of the lower face of the front bulkhead , by a portion of the upper face of the connecting rod , by a portion of the lower face of the rear bulkhead and by a portion of the left face of the intermediate bulkhead . a connecting rod with a first end and a second end ; and a front bulkhead , which has a first portion disposed in a preceding position relative to said connecting rod and a second portion disposed on the connecting rod , wherein said first portion is connected to said second portion; and a rear bulkhead , which is disposed in a posterior position relative to said connecting rod and is connected to said second portion of the front bulkhead ; and an intermediate bulkhead , which is simultaneously connected perpendicularly to a lower face of the front bulkhead , connected perpendicularly to a lower face of the connecting rod and connected perpendicularly to a lower face of the rear bulkhead ; and an element connecting to a surface including an orifice , which is connected to the rear bulkhead ; wherein a first gap is bordered by a portion of the lower face of the front bulkhead , by a portion of the upper face of the connecting rod , by a portion of the lower face of the rear bulkhead and by a portion of the right face of the intermediate bulkhead ; and wherein a second gap is bordered by a portion of the lower face of the front bulkhead , by a portion of the upper face of the connecting rod , by a portion of the lower face of the rear bulkhead and by a portion of the left face of the intermediate bulkhead .
A multilayer film comprising at least a first layer and a second layer, wherein the first layer comprises at least one polyethylene polymer, wherein the second layer comprises at least one water-soluble polymer, wherein the second layer is insoluble in water at a temperature of less than 20°C, wherein the second layer is soluble in water at a temperature of 20°C or greater, and wherein the first layer has one or more openings through the first layer to expose the second layer, wherein the multilayer film further comprises at least a third layer, wherein the second layer is between the first layer and the third layer, wherein the third layer comprises at least one polyethylene polymer and has one or more openings through the third layer to expose the second layer, wherein at least one of the openings in the first layer at least partially overlaps with at least one of the openings in the third layer.
A method of controlling a superplastic forming machine for imprinting a shape on a metal sheet , the machine comprising - a cover , - a tank , - a press and a peripheral seal for the gripping of the sheet by clamping at its periphery, between the tank and the cover, and for sealing a forming chamber delimited by the sheet, - direct radiant heating members (1-8), arranged facing the sheet ; - a gas conduit for regulating the pressure in the forming chamber . - a programmable controller for controlling both the heating power of the heating members and the pressure in the forming chamber, the method being characterized in that it comprises the following steps: ✔ determining an initial heating configuration comprising the shape to be given, an architecture of the heating members (1-8), a thickness of the metal sheet before deformation, an architecture of the cover ; ✔ performing a finite-element simulation relating to the temperature of the metal sheet and performed in such a way as to have a temperature that is substantially consistent across the metal sheet and substantially constant during forming, in order to obtain a forming specification comprising at least one cycle of powering the heating members and one cycle of pressure of the forming chamber; ✔ programming of the programmable controller of the superplastic forming machine according to the forming specification provided by the simulation. - a cover , - a tank , - a press and a peripheral seal for the gripping of the sheet by clamping at its periphery, between the tank and the cover, and for sealing a forming chamber delimited by the sheet, - direct radiant heating members (1-8), arranged facing the sheet ; - a gas conduit for regulating the pressure in the forming chamber . - a programmable controller for controlling both the heating power of the heating members and the pressure in the forming chamber, ✔ determining an initial heating configuration comprising the shape to be given, an architecture of the heating members (1-8), a thickness of the metal sheet before deformation, an architecture of the cover ; ✔ performing a finite-element simulation relating to the temperature of the metal sheet and performed in such a way as to have a temperature that is substantially consistent across the metal sheet and substantially constant during forming, in order to obtain a forming specification comprising at least one cycle of powering the heating members and one cycle of pressure of the forming chamber; ✔ programming of the programmable controller of the superplastic forming machine according to the forming specification provided by the simulation.