mhurhangee/patent-ind-claim-en huggingface dataset:
A safety device for a pre-filled syringe with an injection needle (2.1) comprising - a support body (1.2) adapted to mount the pre-filled syringe , - a needle shield (1.1) slidably arranged with respect to the support body (1.2), - a retention and locking means (M) for retaining and locking the needle shield (1.1) with respect to the support body (1.2) in three different positions, i.e. in a first and a second advanced position (PA1, PA2) and in a retracted position (PR), wherein the needle shield (1.1) comprises an annular flange (1.1.1) adapted to rest on the skin of the patient receiving an injection and wherein the retention and locking means (M) are arranged at a distal end of the safety device , characterized in that the needle shield (1.1) is arranged with respect to the support body (1.2) in the first and in the second advanced position (PA1, PA2) so as to cover the injection needle (2.1). - a support body (1.2) adapted to mount the pre-filled syringe , - a needle shield (1.1) slidably arranged with respect to the support body (1.2), - a retention and locking means (M) for retaining and locking the needle shield (1.1) with respect to the support body (1.2) in three different positions, i.e. in a first and a second advanced position (PA1, PA2) and in a retracted position (PR), wherein the needle shield (1.1) comprises an annular flange (1.1.1) adapted to rest on the skin of the patient receiving an injection and wherein the retention and locking means (M) are arranged at a distal end of the safety device , characterized in that the needle shield (1.1) is arranged with respect to the support body (1.2) in the first and in the second advanced position (PA1, PA2) so as to cover the injection needle (2.1).
A gas turbine engine comprising: - a fan mounted to rotate about a main longitudinal axis , - an engine core , comprising in axial flow series a compressor , a combustor , and a turbine coupled to the compressor through a shaft , and - a reduction gearbox with an input from the shaft and an output to the fan , the fan being adapted to rotate at a lower rotational rate than the shaft , wherein the compressor comprises a first stage (ST1) with a first rotor (R1) and a first stator (S1) comprising a plurality of blades (B1) and vanes (V1), respectively, with a leading edge, a trailing edge and a tip, the blades and vanes being separated by axial gaps, wherein a tip axial distance (AGT1) between the blade trailing edge of the first rotor (R1) and the vane leading edge of the first stator (S1) is defined as the distance along the main longitudinal axis between a blade trailing edge tip of the first rotor (R1), i.e. where the trailing edge and the tip of the blade (B1) of the first rotor (R1) meet, and the vane leading edge of the first stator (S1), and characterised in that said tip axial distance (AGT1) is equal to d × inlet flow function 10 , wherein d is equal or greater than 23 mm and less than 40 mm, and the inlet flow function is defined as dimensionless value of m T P , wherein m is a mass airflow at an inlet to the compressor in kg/s, T is the total temperature at the inlet to the compressor in K, and P is the total pressure at the inlet to the compressor in kPa, at the compressor aerodynamic design point. - a fan mounted to rotate about a main longitudinal axis , - an engine core , comprising in axial flow series a compressor , a combustor , and a turbine coupled to the compressor through a shaft , and - a reduction gearbox with an input from the shaft and an output to the fan , the fan being adapted to rotate at a lower rotational rate than the shaft , wherein the compressor comprises a first stage (ST1) with a first rotor (R1) and a first stator (S1) comprising a plurality of blades (B1) and vanes (V1), respectively, with a leading edge, a trailing edge and a tip, the blades and vanes being separated by axial gaps, wherein a tip axial distance (AGT1) between the blade trailing edge of the first rotor (R1) and the vane leading edge of the first stator (S1) is defined as the distance along the main longitudinal axis between a blade trailing edge tip of the first rotor (R1), i.e. where the trailing edge and the tip of the blade (B1) of the first rotor (R1) meet, and the vane leading edge of the first stator (S1), and characterised in that said tip axial distance (AGT1) is equal to d × inlet flow function 10 , wherein d is equal or greater than 23 mm and less than 40 mm, and the inlet flow function is defined as dimensionless value of m T P , wherein m is a mass airflow at an inlet to the compressor in kg/s, T is the total temperature at the inlet to the compressor in K, and P is the total pressure at the inlet to the compressor in kPa, at the compressor aerodynamic design point.
A battery module, comprising: two or more battery groups , wherein each battery group comprises two or more battery cells ; a module frame , comprising end plates and side plates , wherein the end plates and the side plates enclose an accommodating cavity for fixing the battery groups ; a middle plate , wherein the middle plate is disposed between two of the battery groups , and is provided with an accommodating groove inside, wherein the accommodating groove is recessed from a top to a bottom of the middle plate ; and a cell management unit , disposed in the accommodating groove of the middle plate and connected to a sampling line of the battery cells to collect data of the battery cells , wherein the sampling line of the battery cells is connected to a top of the cell management unit ; characterized in that the battery module further comprises a separator , wherein the separator is disposed at a top of the battery groups , and wherein the sampling line of the battery cells is a flexible circuit board, and disposed on an upper surface of the separator at the top of the battery groups . two or more battery groups , wherein each battery group comprises two or more battery cells ; a module frame , comprising end plates and side plates , wherein the end plates and the side plates enclose an accommodating cavity for fixing the battery groups ; a middle plate , wherein the middle plate is disposed between two of the battery groups , and is provided with an accommodating groove inside, wherein the accommodating groove is recessed from a top to a bottom of the middle plate ; and a cell management unit , disposed in the accommodating groove of the middle plate and connected to a sampling line of the battery cells to collect data of the battery cells , wherein the sampling line of the battery cells is connected to a top of the cell management unit ; characterized in that the battery module further comprises a separator , wherein the separator is disposed at a top of the battery groups , and wherein the sampling line of the battery cells is a flexible circuit board, and disposed on an upper surface of the separator at the top of the battery groups .
An implantable medical device including a plurality of struts arranged in a generally conical form; each strut having a first end , a second end , and an operative length between the first and second ends; each strut being able to flex along the operative length thereof and including: a strut skeleton having a first flexural modulus; and a reinforcement element extending along the operative length and attached to the strut skeleton, wherein the reinforcement element and the strut skeleton together have a second flexural modulus greater than the first flexural modulus, wherein at least one of the reinforcement element and the strut skeleton varies in at least one of amount and composition continuously along the operative length such that the second flexural modulus varies in a continuous manner along the operative length; wherein the reinforcement element is biodegradable thereby changing the flexural modulus of the strut from the second flexural modulus to the first flexural modulus as the reinforcement element biodegrades. a strut skeleton having a first flexural modulus; and a reinforcement element extending along the operative length and attached to the strut skeleton, wherein the reinforcement element and the strut skeleton together have a second flexural modulus greater than the first flexural modulus, wherein at least one of the reinforcement element and the strut skeleton varies in at least one of amount and composition continuously along the operative length such that the second flexural modulus varies in a continuous manner along the operative length; wherein the reinforcement element is biodegradable thereby changing the flexural modulus of the strut from the second flexural modulus to the first flexural modulus as the reinforcement element biodegrades.
A pouched smokeless oral product comprising a pouch containing a filling material, said filling material comprising or consisting of: a) at least one of tobacco, non-tobacco plant material and a combination thereof; and b) one or more flavour capsules, wherein said flavour capsule is composed of - a core material comprising NaCl as a carrier and at least one flavour component being in contact with the carrier; and - a shell material coating the core, wherein said shell material comprises or consists of a hydrophobic polysaccharide; wherein the NaCl carrier is provided in the flavour capsule in the form of agglomerated particles, preferably such agglomerated particles have a mean particle size of from 0,05 to 4,5mm. a) at least one of tobacco, non-tobacco plant material and a combination thereof; and b) one or more flavour capsules, wherein said flavour capsule is composed of - a core material comprising NaCl as a carrier and at least one flavour component being in contact with the carrier; and - a shell material coating the core, wherein said shell material comprises or consists of a hydrophobic polysaccharide; - a core material comprising NaCl as a carrier and at least one flavour component being in contact with the carrier; and - a shell material coating the core, wherein said shell material comprises or consists of a hydrophobic polysaccharide;
A direction-sensitive electronic animal containment system comprising: a wire loop bounding a selected area , said wire loop defining a safe zone , a correction zone , and an escape zone , said safe zone and said correction zone located within the selected area, said escape zone located outside the selected area; a containment signal generator in communication with said wire loop, said containment signal generator being suitable for generating a containment signal current in said wire loop, said containment signal current comprising a containment signal waveform having a rise time and a fall time, the rise time having a different rate of change than the fall time; and a receiver unit being suitable for receiving a signal having an uneven voltage duty cycle as a result of said containment signal current in said wire loop, and for determining a direction of approach of the correction zone based on the polarity of the received signal determined by evaluating said duty cycle, said receiver unit correcting an animal when the direction of approach indicates the animal is entering said correction zone from said safe zone, said receiver unit allowing the animal to pass without correction when the direction of approach indicates the animal is entering said correction zone from said escape zone. a wire loop bounding a selected area , said wire loop defining a safe zone , a correction zone , and an escape zone , said safe zone and said correction zone located within the selected area, said escape zone located outside the selected area; a containment signal generator in communication with said wire loop, said containment signal generator being suitable for generating a containment signal current in said wire loop, said containment signal current comprising a containment signal waveform having a rise time and a fall time, the rise time having a different rate of change than the fall time; and a receiver unit being suitable for receiving a signal having an uneven voltage duty cycle as a result of said containment signal current in said wire loop, and for determining a direction of approach of the correction zone based on the polarity of the received signal determined by evaluating said duty cycle, said receiver unit correcting an animal when the direction of approach indicates the animal is entering said correction zone from said safe zone, said receiver unit allowing the animal to pass without correction when the direction of approach indicates the animal is entering said correction zone from said escape zone.
Oven , having: - a cooking compartment , - a humidity sensor that is arranged in the cooking compartment, - an air circulation heater with an air circulation fan and a ring heating element and - an air management system (12-14) for ventilating and/or venting the cooking compartment , - which air management system (12-14) is configured to control the ventilating and/or venting on the basis of a humidity measurement by the humidity sensor , and - the air management system (12-14) is configured to control the ventilating and/or venting on the basis of the humidity measurement during a run-on operation of the oven , characterised in that the air management system (12-14) is configured, - during a first subsection of the run-on operation, to reduce a temperature in the cooking compartment by actuating the air circulation fan without activating the ring heating element , until a predetermined temperature threshold value is reached or fallen below, - when the predetermined temperature threshold value is reached or fallen below, to check whether the humidity content in the cooking compartment is at or above a predetermined humidity threshold value and, if this is the case, - during a second subsection following on from the first subsection, to switch on a cooling fan in order to push fresh air into the cooking compartment until the humidity in the cooking compartment reaches or falls below the predetermined humidity threshold value. - a cooking compartment , - a humidity sensor that is arranged in the cooking compartment, - an air circulation heater with an air circulation fan and a ring heating element and - an air management system (12-14) for ventilating and/or venting the cooking compartment , - which air management system (12-14) is configured to control the ventilating and/or venting on the basis of a humidity measurement by the humidity sensor , and - the air management system (12-14) is configured to control the ventilating and/or venting on the basis of the humidity measurement during a run-on operation of the oven , characterised in that the air management system (12-14) is configured, - during a first subsection of the run-on operation, to reduce a temperature in the cooking compartment by actuating the air circulation fan without activating the ring heating element , until a predetermined temperature threshold value is reached or fallen below, - when the predetermined temperature threshold value is reached or fallen below, to check whether the humidity content in the cooking compartment is at or above a predetermined humidity threshold value and, if this is the case, - during a second subsection following on from the first subsection, to switch on a cooling fan in order to push fresh air into the cooking compartment until the humidity in the cooking compartment reaches or falls below the predetermined humidity threshold value.
A circular patch antenna , comprising: a first dielectric patch comprising a first plurality of inner and outer feed apertures ; a top metallization positioned on top of the first dielectric patch ; a second dielectric patch comprising a second plurality of inner and outer feed apertures ; the first dielectric patch is positioned over the second dielectric patch ; wherein the first plurality of inner and outer feed apertures and the second plurality of inner and outer feed apertures are aligned with one another; a middle metallization that is positioned between the first dielectric patch and the second dielectric patch , the middle metallization comprising a plurality of arc slots , each of the plurality of arc slots being positioned between the first and second plurality of inner and outer feed apertures and an external periphery of the middle metallization ; and a bottom metallization that is disposed below the second dielectric patch , the bottom metallization comprising a ground plane for the circular patch antenna . a first dielectric patch comprising a first plurality of inner and outer feed apertures ; a top metallization positioned on top of the first dielectric patch ; a second dielectric patch comprising a second plurality of inner and outer feed apertures ; the first dielectric patch is positioned over the second dielectric patch ; wherein the first plurality of inner and outer feed apertures and the second plurality of inner and outer feed apertures are aligned with one another; a middle metallization that is positioned between the first dielectric patch and the second dielectric patch , the middle metallization comprising a plurality of arc slots , each of the plurality of arc slots being positioned between the first and second plurality of inner and outer feed apertures and an external periphery of the middle metallization ; and a bottom metallization that is disposed below the second dielectric patch , the bottom metallization comprising a ground plane for the circular patch antenna .
A method of operating a storage device including a memory controller and a non-volatile memory device storing data in memory blocks, the method comprising: estimating (S1040) a valid page count VPC for each of the memory blocks using a neural network model trained based on the VPC for each of the memory blocks; selecting (S1050) a victim block from the memory blocks based on an estimated VPC for each of the memory blocks; and performing (S1060) garbage collection on the victim block. estimating (S1040) a valid page count VPC for each of the memory blocks using a neural network model trained based on the VPC for each of the memory blocks; selecting (S1050) a victim block from the memory blocks based on an estimated VPC for each of the memory blocks; and performing (S1060) garbage collection on the victim block.
Device (100, 100', 100") for taking a liquid in a container, characterised in that it comprises: - a housing having a longitudinal axis (AL); - a component (20, 20', 20") comprising: • a body equipped with at least one channel with a proximal end and a distal end ; • a receptacle , attached with respect to the body , and situated in the extension of the proximal end of said at least one channel , said component (20, 20' 20") being rotatably mounted with respect to the housing about the longitudinal axis of this housing between a closed position wherein the distal end of said at least one channel is closed by the housing and an open position wherein the distal end of said at least one channel is capable of establishing a fluid communication with the container; and - an elastic valve housed in the receptacle . - a housing having a longitudinal axis (AL); - a component (20, 20', 20") comprising: • a body equipped with at least one channel with a proximal end and a distal end ; • a receptacle , attached with respect to the body , and situated in the extension of the proximal end of said at least one channel , said component (20, 20' 20") being rotatably mounted with respect to the housing about the longitudinal axis of this housing between a closed position wherein the distal end of said at least one channel is closed by the housing and an open position wherein the distal end of said at least one channel is capable of establishing a fluid communication with the container; and • a body equipped with at least one channel with a proximal end and a distal end ; • a receptacle , attached with respect to the body , and situated in the extension of the proximal end of said at least one channel , - an elastic valve housed in the receptacle .
A self-propelling work machine, in particular a tracked vehicle such as a bulldozer, having an electric drive comprising at least one electric motor , having a generator drivable by an internal combustion engine and for supplying the electric drive with electrical energy, and having at least one auxiliary unit , connected to the internal combustion engine, in the form of a hydraulic pump which is not required for the travel operation and conveys in idle circulation on driving or is swiveled to conveying a quantity of zero as well as having a braking apparatus for braking the work machine, wherein the named braking apparatus provides a regenerative braking by the electric drive and comprises a feedback apparatus for the feedback of electrical motor braking power of the electric motor to the generator , wherein the motor braking power of the at least one electric motor is transferred, at least up to the reaching of the retard capacity of the internal combustion engine and of the at least one auxiliary unit , completely to the generator connected to the internal combustion engine and the mechanical drive power generated by the generator is transferred completely to the internal combustion engine , characterized in that a control apparatus is provided for the automatic increasing and/or decreasing of the power pickup of the hydraulic pump in dependence on the electrical motor braking power fed back to the internal combustion engine and/or on the operating state of the internal combustion engine acted on by fed back motor braking power, with the control apparatus having a regulator for regulating the power pick-up of the hydraulic system such that the internal combustion engine is maintained at a predefined speed or comes as close as possible to the predefined speed.
A drug dispensing device wherein said device is waterproof and hands-free and it comprises: - a rigid housing composed of a lower part and an upper part , both parts connected to each other along the longitudinal axis of said housing , forming an inner space delimited by the inner faces of said lower and upper parts; - the upper part of the housing comprising at least one flexible tab on the top of its surface; - a capsule placed inside the housing comprising a valve that is expellable and retractable; said valve being positioned in the centre of the top of the capsule's face which is in contact with the upper part of the housing ; wherein - the device is configured to expel the valve from the inside of the capsule , becoming external to the boundary of the upper part of the housing , in case of a pressure is applied on the capsule itself upon pressure on the at least one flexible tab . - a rigid housing composed of a lower part and an upper part , both parts connected to each other along the longitudinal axis of said housing , forming an inner space delimited by the inner faces of said lower and upper parts; - the upper part of the housing comprising at least one flexible tab on the top of its surface; - a capsule placed inside the housing comprising a valve that is expellable and retractable; said valve being positioned in the centre of the top of the capsule's face which is in contact with the upper part of the housing ; wherein - the device is configured to expel the valve from the inside of the capsule , becoming external to the boundary of the upper part of the housing , in case of a pressure is applied on the capsule itself upon pressure on the at least one flexible tab .