mhurhangee/patent-ind-claim-en huggingface dataset:
A process for preparing a soft cheesecake mixture, comprising the following steps: - placing the ingredients for preparing the soft mixture in a pre-mixing member ; - carrying out a step of pre-mixing the aforesaid ingredients so as to blend them together to obtain a pre-mixed mixture having a density comprised between 0.72 g/mL and 0.84 g/mL; - transferring the pre-mixed mixture into a collection tank whose temperature is maintained at a value comprised between 25 °C and 40 °C; - continuously transferring a part of the pre-mixed mixture present in the collection tank towards a homogenising member ; - carrying out a step of homogenising the pre-mixed mixture by means of said homogenising member , whose temperature is maintained at a value comprised between 25 °C and 40 °C so as to obtain an emulsified mixture having a density comprised between 0.81 g/mL and 0.92 g/mL; said homogenising member comprising a rotor rotating relative to a stator , between which there is defined a mixing chamber that extends along a longitudinal axis (X) configured in such a way as to create a feed path of the mixture that has a serpentine or zig-zag configuration, wherein said process comprises the further step of transferring the emulsified mixture towards a deaerator member configured to further reduce any air incorporated during the homogenisation step so as to obtain a mixture having a density comprised between 0.90 g/mL and 0.97 g/mL. - placing the ingredients for preparing the soft mixture in a pre-mixing member ; - carrying out a step of pre-mixing the aforesaid ingredients so as to blend them together to obtain a pre-mixed mixture having a density comprised between 0.72 g/mL and 0.84 g/mL; - transferring the pre-mixed mixture into a collection tank whose temperature is maintained at a value comprised between 25 °C and 40 °C; - continuously transferring a part of the pre-mixed mixture present in the collection tank towards a homogenising member ; - carrying out a step of homogenising the pre-mixed mixture by means of said homogenising member , whose temperature is maintained at a value comprised between 25 °C and 40 °C so as to obtain an emulsified mixture having a density comprised between 0.81 g/mL and 0.92 g/mL; said homogenising member comprising a rotor rotating relative to a stator , between which there is defined a mixing chamber that extends along a longitudinal axis (X) configured in such a way as to create a feed path of the mixture that has a serpentine or zig-zag configuration,
A surface treatment composition, comprising: based on 100 wt% of solid content of composition, 20 to 40 wt% of water-soluble polyurethane resin; 40 to 60 wt% of silane-based sol-gel resin in which three types of silane compounds are cross-linked; 5 to 15 wt% of curing agent; 0.5 to 1.5 wt% of an anti-rust corrosion resistance agent; 0.1 to 1.0 wt% of a molybdenum-based compound; 1.0 to 3.0 wt% of a silane coupling agent; 1.0 to 2.0 wt% of an organometallic complex; 1.0 to 2.0 wt% of an acid scavenger; 0.1 to 1.0 wt% of an aluminum-based compound; and 1.0 to 2.0 wt% of a lubricant. 20 to 40 wt% of water-soluble polyurethane resin; 40 to 60 wt% of silane-based sol-gel resin in which three types of silane compounds are cross-linked; 5 to 15 wt% of curing agent; 0.5 to 1.5 wt% of an anti-rust corrosion resistance agent; 0.1 to 1.0 wt% of a molybdenum-based compound; 1.0 to 3.0 wt% of a silane coupling agent; 1.0 to 2.0 wt% of an organometallic complex; 1.0 to 2.0 wt% of an acid scavenger; 0.1 to 1.0 wt% of an aluminum-based compound; and 1.0 to 2.0 wt% of a lubricant.
An automotive electrical coolant pump comprising a pump section with a pump wheel and a motor section with a motor rotor and a motor stator , a pump section housing and a separate motor section housing which is fixed to the pump section housing , the pump section housing comprises a coolant inlet and a coolant outlet , the fixation of the pump section housing at the motor section housing is provided by a fixation arrangement , the fixation arrangement is defined by at least two separate clamping protrusions protruding radially outwardly from one of the section housings , at least two axial clamping tongues protruding axially from the other section housing , and characterized in that the coolant pump further comprises a separate locking ring , wherein the clamping protrusions and the clamping tongues define a circumferential clamping channel , and the locking ring is arranged in the clamping channel and extends through the clamping channel circumferentially so that the clamping protrusions and the clamping tongues are interlocked against each other by the locking ring .
A process for the preparation of a complex of formula (I): comprising the step of reacting Pd(diolefin)X 2 or PdX 2 and PR 1 R 2 R 3 in a solvent to form the complex of formula (I), wherein the process is carried out in the absence of a base, the molar ratio of Pd(diolefin)X 2 : PR 1 R 2 R 3 or PdX 2 : PR 1 R 2 R 3 is greater than 1:1.1, up to 1:2.5; each X is independently a halide; and R 1 , R 2 and R 3 are independently selected from the group consisting of tert-butyl and iso-propyl. the process is carried out in the absence of a base, the molar ratio of Pd(diolefin)X 2 : PR 1 R 2 R 3 or PdX 2 : PR 1 R 2 R 3 is greater than 1:1.1, up to 1:2.5; each X is independently a halide; and R 1 , R 2 and R 3 are independently selected from the group consisting of tert-butyl and iso-propyl.
A method for obtaining information on subject's diabetes, comprising measuring lipoprotein's ability to uptake sterol in a biological sample of a subject, wherein a measured value of ability to uptake sterol per unit volume of the biological sample is an indicator of diabetes onset risk.
A control system for controlling operating voltage supplied to an electronic device provided with a timing event detector responsive to timing events related to operation of the electronic device, the control system comprising: - a controller for determining a rate of the timing events as a ratio of a number of pulses of a timing event signal and a number of pulses of a clock signal during a sample period, for decreasing the operating voltage as long as the rate of the timing events is below a target level, and for increasing the operating voltage when the rate of the timing events exceeds the target level so as to search for a threshold voltage being a smallest value of the operating voltage at which the rate of the timing events is substantially at the target level, and - a controllable clock signal generator for producing the clock signal for operating the electronic device, wherein the clock frequency representing a pulse rate of the clock signal is according to an increasing function of the operating voltage such that the rate of the timing events is substantially at the target level when the operating voltage is above the threshold voltage and the clock frequency is according to the increasing function of the operating voltage, and the rate of the timing events exceeds the target level when the operating voltage is below the threshold voltage and the clock frequency is according to the increasing function of the operating voltage. - a controller for determining a rate of the timing events as a ratio of a number of pulses of a timing event signal and a number of pulses of a clock signal during a sample period, for decreasing the operating voltage as long as the rate of the timing events is below a target level, and for increasing the operating voltage when the rate of the timing events exceeds the target level so as to search for a threshold voltage being a smallest value of the operating voltage at which the rate of the timing events is substantially at the target level, and - a controllable clock signal generator for producing the clock signal for operating the electronic device,
A system, comprising: a low-tension unwinding unit for receiving and unwinding a metal coil of metal strip; a non-contacting hold-down device positioned adjacent the low-tension unwinding unit to provide force on the metal strip towards the center of the metal coil during unwinding of the metal coil; a set of quenching zones for cooling the metal strip, wherein the set of quenching zones provides sufficient coolant to reduce a temperature of the metal strip by a rate of at least 30 °C per second; a coolant removal unit positioned downstream of the set of quenching zones; and a bridle unit positioned downstream of the coolant removal unit for increasing tension in the metal strip. a low-tension unwinding unit for receiving and unwinding a metal coil of metal strip; a non-contacting hold-down device positioned adjacent the low-tension unwinding unit to provide force on the metal strip towards the center of the metal coil during unwinding of the metal coil; a set of quenching zones for cooling the metal strip, wherein the set of quenching zones provides sufficient coolant to reduce a temperature of the metal strip by a rate of at least 30 °C per second; a coolant removal unit positioned downstream of the set of quenching zones; and a bridle unit positioned downstream of the coolant removal unit for increasing tension in the metal strip.
A turbine engine system, comprising: an engine starter coupled to a turbine engine; and a starter valve assembly configured to provide a flow of fluid to the engine starter, the starter valve assembly having a flow control valve movable via an actuator, a pneumatic control in communication with the actuator, and a torque motor servo-valve in communication with the actuator; wherein the pneumatic control is configured to provide over-torque protection to the engine starter wherein the pneumatic control comprises: a control spring within a control cover ; a control diaphragm and, a control nozzle configured to meter a pneumatic fluid to a servo-piston and diaphragm of the actuator such that a pressure of fluid against the diaphragm is balanced against a spring force of the control spring ;and characterized in that the torque motor servo-valve is configured to vary a position of the flow control valve to an infinite number of positions between an open position and a closed position; wherein the torque motor servo-valve has a torque motor and an armature , wherein the torque motor controls a position of the armature which controls a flow of the pneumatic fluid to the actuator. an engine starter coupled to a turbine engine; and a starter valve assembly configured to provide a flow of fluid to the engine starter, the starter valve assembly having a flow control valve movable via an actuator, a pneumatic control in communication with the actuator, and a torque motor servo-valve in communication with the actuator; wherein the pneumatic control is configured to provide over-torque protection to the engine starter wherein the pneumatic control comprises: a control spring within a control cover ; a control diaphragm and, a control nozzle configured to meter a pneumatic fluid to a servo-piston and diaphragm of the actuator such that a pressure of fluid against the diaphragm is balanced against a spring force of the control spring ;and characterized in that the torque motor servo-valve is configured to vary a position of the flow control valve to an infinite number of positions between an open position and a closed position; wherein the torque motor servo-valve has a torque motor and an armature , wherein the torque motor controls a position of the armature which controls a flow of the pneumatic fluid to the actuator. a control spring within a control cover ; a control diaphragm and, a control nozzle configured to meter a pneumatic fluid to a servo-piston and diaphragm of the actuator such that a pressure of fluid against the diaphragm is balanced against a spring force of the control spring ;and characterized in that the torque motor servo-valve is configured to vary a position of the flow control valve to an infinite number of positions between an open position and a closed position; wherein the torque motor servo-valve has a torque motor and an armature , wherein the torque motor controls a position of the armature which controls a flow of the pneumatic fluid to the actuator.
An ultrasonic diagnostic apparatus comprising: a main body ; an input/output device coupled to the main body and configured to receive information from a user or output information received from the main body ; and a connection device to connect the main body and the input/output device , wherein the connection device includes: a shaft having a shaft body ; a link frame having a frame body and a shaft coupling portion extending from the frame body to be coupled with the shaft ; and an actuator including a torsion spring having a first end supported by the shaft and a second end supported by the link frame , so as to compensate for a weight of the input/output device ; characterized in that the link frame is configured to be rotatable together with the shaft and the torsion spring has a rotation axis that is rotated together with the link frame and the shaft . a main body ; an input/output device coupled to the main body and configured to receive information from a user or output information received from the main body ; and a connection device to connect the main body and the input/output device , wherein the connection device includes: a shaft having a shaft body ; a link frame having a frame body and a shaft coupling portion extending from the frame body to be coupled with the shaft ; and an actuator including a torsion spring having a first end supported by the shaft and a second end supported by the link frame , so as to compensate for a weight of the input/output device ; characterized in that the link frame is configured to be rotatable together with the shaft and the torsion spring has a rotation axis that is rotated together with the link frame and the shaft . a shaft having a shaft body ; a link frame having a frame body and a shaft coupling portion extending from the frame body to be coupled with the shaft ; and an actuator including a torsion spring having a first end supported by the shaft and a second end supported by the link frame , so as to compensate for a weight of the input/output device ; characterized in that the link frame is configured to be rotatable together with the shaft and the torsion spring has a rotation axis that is rotated together with the link frame and the shaft .
Aircraft propulsion assembly comprising an engine , a nacelle positioned around the engine , an annular duct positioned between the engine and the nacelle and configured to channel a cold air stream and at least one ventilation device configured to cool at least one zone to be cooled of the propulsion assembly, the ventilation device comprising at least one ventilation hole which emerges in the zone to be cooled, the ventilation device being regulated and comprising at least one valve that is movable between a closed position in which the valve shuts the ventilation hole and an open position in which the valve at least partially frees the ventilation hole , and at least one thermoelectric generator configured to generate an electric current; characterized in that the ventilation device also comprises at least one servocontrol mechanism configured to control the position of the valve by using the electrical current generated by the thermoelectric generator .
A motor vehicle having a hood , a windscreen and a pedestrian airbag arrangement ; the airbag arrangement having an airbag (8, 8', 8") defining an inflatable volume for the receipt of inflating gas; said inflatable volume comprising: a primary chamber (13, 13', 13") configured for inflation upon deployment of the airbag so as to adopt an inflated position in which it stands generally upwardly from a front region of the motor vehicle and extends transversely across the motor vehicle such that an uppermost region of the primary chamber is spaced above the hood of the vehicle ; and a pair of secondary chambers (14, 14', 14") configured for inflation upon deployment of the airbag so as to adopt respective inflated positions in which they: i) extend generally rearwardly from the primary chamber (13, 13', 13") in spaced relationship to one another and at respective opposite sides of the motor vehicle ; and ii) terminate adjacent respective opposite side regions of the motor vehicle's structure.
Gas turbine unit having an axis (A) parallel to the main gas flow (M), the gas turbine unit comprising: - a blade having a tip comprising a tip leading edge and a tip trailing edge ; - a stator heat shield having a inner surface facing the blade tip ; wherein the inner surface of the stator heat shield and the blade tip define a variable clearance depending on the thermal condition; wherein in the cold starting condition the tip leading edge is arranged at a higher distance from the axis (A) than the tip trailing edge ; in the hot running condition the tip trailing edge and the tip leading edge being arranged at the same distance from the axis (A) and the tip being a surface generated by a plurality of straight lines parallel to axis (A); characterized in that the inner surface of the stator heat shield comprises an upstream edge and a downstream edge , in the cold starting condition along the axial direction the downstream edge and the upstream edge are closer to the axis (A) than the middle portion of the inner surface of the stator heat shield ; in the hot running condition along the axial direction the downstream edge , the upstream edge and the middle portion of the inner surface of the stator heat shield are arranged at the same distance from the axis (A) and the inner surface of the stator heat shield is a surface generated by a plurality of straight lines parallel to axis (A). - a blade having a tip comprising a tip leading edge and a tip trailing edge ; - a stator heat shield having a inner surface facing the blade tip ;
A method of synthesizing a peptide on a substrate, comprising: obtaining a substrate comprising a plurality of amine groups for linking to a coupling molecule, wherein the coupling molecule is an amino acid, and wherein the amino acid comprises an Fmoc protecting group attached to an amine group; contacting said substrate with a carboxylic acid activating compound, wherein said compound is 1-(3-(diethylamino)-propyl)-4-(2-methoxyphenyl)-1,4-dihydro-5H-tetrazole-5-thione; selectively exposing said substrate to light, thereby activating a carboxylic group of said coupling molecule at a selectively exposed area; coupling the activated carboxylic group of said coupling molecule to at least one of said plurality of amine groups at said selectively exposed area; repeating the above steps to produce a desired peptide attached to said substrate. obtaining a substrate comprising a plurality of amine groups for linking to a coupling molecule, wherein the coupling molecule is an amino acid, and wherein the amino acid comprises an Fmoc protecting group attached to an amine group; contacting said substrate with a carboxylic acid activating compound, wherein said compound is 1-(3-(diethylamino)-propyl)-4-(2-methoxyphenyl)-1,4-dihydro-5H-tetrazole-5-thione; selectively exposing said substrate to light, thereby activating a carboxylic group of said coupling molecule at a selectively exposed area; coupling the activated carboxylic group of said coupling molecule to at least one of said plurality of amine groups at said selectively exposed area; repeating the above steps to produce a desired peptide attached to said substrate.
A system to remove dust from an extravehicular mobility unit, EMU, worn by an astronaut in a deep space environment, the system comprising: one or more ionic shower units configured to be installed external to an interior volume of a facility , each ionic shower unit being configured to release positively charged ions and negatively charged ions in a specified direction to neutralize the dust and generate neutralized dust , wherein the interior volume of the facility is defined by an interior hatch that is separated from an exterior hatch by an airlock ; and one or more collection units configured to be installed external to the interior volume, each collection unit being configured to trap the neutralized dust to prevent the dust from entering the interior volume; wherein the system is configured to be located in the airlock between the interior hatch and the exterior hatch of the facility and the facility is a space vehicle or a habitat; and wherein either the system further comprises a ring-shaped support whose opening is seized to encircle the astronaut and wherein the one or more ionic shower units or the one or more collection units are installed in the ring-shaped support; or the system further comprises a swing arm to move around the EMU and wherein the one or more ionic shower units or the one or more collection units are installed on the swing arm. one or more ionic shower units configured to be installed external to an interior volume of a facility , each ionic shower unit being configured to release positively charged ions and negatively charged ions in a specified direction to neutralize the dust and generate neutralized dust , wherein the interior volume of the facility is defined by an interior hatch that is separated from an exterior hatch by an airlock ; and one or more collection units configured to be installed external to the interior volume, each collection unit being configured to trap the neutralized dust to prevent the dust from entering the interior volume; wherein the system is configured to be located in the airlock between the interior hatch and the exterior hatch of the facility and the facility is a space vehicle or a habitat; and wherein either the system further comprises a ring-shaped support whose opening is seized to encircle the astronaut and wherein the one or more ionic shower units or the one or more collection units are installed in the ring-shaped support; or the system further comprises a swing arm to move around the EMU and wherein the one or more ionic shower units or the one or more collection units are installed on the swing arm.