mhurhangee/patent-ind-claim-en huggingface dataset:
A bullet configured to be propelled by a blast of a cartridge, the bullet comprising a main body provided with an internal body cavity and having: a frontward section ; and a rearward section provided with an opening in fluid communication with the internal body cavity , the internal body cavity being substantially cylindrical, and being positioned, shaped and sized inside the main body for recovering a portion of gun gas resulting from the blast of the cartridge via the opening provided at a rearward end of the bullet , and the internal body cavity being further configured for releasing gun gas during a flight trajectory of the bullet in order to reduce a resulting base drag of said bullet during flight; wherein the reduction of the drag of the bullet during flight is achieved solely by released gun gas from the internal body cavity . a frontward section ; and a rearward section provided with an opening in fluid communication with the internal body cavity , the internal body cavity being substantially cylindrical, and being positioned, shaped and sized inside the main body for recovering a portion of gun gas resulting from the blast of the cartridge via the opening provided at a rearward end of the bullet , and the internal body cavity being further configured for releasing gun gas during a flight trajectory of the bullet in order to reduce a resulting base drag of said bullet during flight; wherein the reduction of the drag of the bullet during flight is achieved solely by released gun gas from the internal body cavity .
An antigen array comprising different groups of antigen-coated beads fixed on a solid carrier, wherein each group comprises (i) different types of beads coated with one detection antigen, or (ii) different types of beads coated with a set of detection antigens, and wherein the solid carrier is a sheet or plate and the detection antigen is an allergen, an infection marker or an autoantigen, wherein the detection antigen or set of detection antigens are coupled to said different groups of beads with different coupling chemistries. (i) different types of beads coated with one detection antigen, or (ii) different types of beads coated with a set of detection antigens, and wherein the solid carrier is a sheet or plate and the detection antigen is an allergen, an infection marker or an autoantigen, wherein the detection antigen or set of detection antigens are coupled to said different groups of beads with different coupling chemistries.
Solid waste bag unit for solid waste of an analyzer , comprising a bag , and an insert , wherein the insert is arranged within the bag , wherein the bag is made of an autoclavable material, wherein the bag is made of polypropylene, wherein the insert is made of a cardboard or plastic material, wherein the solid waste of the analyzer is laboratory solid waste.
Print head for a 3D printer for three-dimensional printing on a substrate , comprising at least: • a material delivery conduit substantially longitudinal along an axis (X) through which passes a transport flow of material to be deposited on the substrate , • a cooling circuit through which a cooling fluid circulates, configured to cool the print head . • a laser , configured to heat the material to be deposited and/or the substrate , • a protective fluid conduit through which a protective fluid flow passes, • a nozzle , at which at least the flows from said conduits exit, the laser having a different axis from the axis (X) of the material delivery conduit, at least at their exit from the nozzle , the thus misaligned laser being independent from the material delivery conduit and not sharing the same conduit as the material delivery conduit, the external wall of the material delivery conduit being contiguous with the internal wall of the protective fluid flow conduit , characterized in that the material delivery conduit and the protective fluid conduit are concentric so that the protective flow surrounds the material flow and creates an inert environment at the nozzle exit and in a working space around the deposition of the material to be deposited on the substrate . • a material delivery conduit substantially longitudinal along an axis (X) through which passes a transport flow of material to be deposited on the substrate , • a cooling circuit through which a cooling fluid circulates, configured to cool the print head . • a laser , configured to heat the material to be deposited and/or the substrate , • a protective fluid conduit through which a protective fluid flow passes, • a nozzle , at which at least the flows from said conduits exit, the laser having a different axis from the axis (X) of the material delivery conduit, at least at their exit from the nozzle , the thus misaligned laser being independent from the material delivery conduit and not sharing the same conduit as the material delivery conduit, the external wall of the material delivery conduit being contiguous with the internal wall of the protective fluid flow conduit , characterized in that the material delivery conduit and the protective fluid conduit are concentric so that the protective flow surrounds the material flow and creates an inert environment at the nozzle exit and in a working space around the deposition of the material to be deposited on the substrate .
A pneumatic tire comprising: a first sound damper (3 a) fixed to a tire inner surface and being made of a sponge material; a second sound damper disposed on a tire internal space side of the first sound damper , and being made of a sponge material; and a sensor retained to at least the first sound damper , the sensor being configured to detect a displacement of the tire inner surface or a physical quantity calculable based on the displacement of the tire inner surface, characterized in that the first sound damper has a hardness greater than a hardness of the second sound damper , the "hardness" being defined as a value measured in accordance with the Method A in Section 6.4 of the test methods described in "Hardness Tests" in Section 6 of JIS K6400-2 . a first sound damper (3 a) fixed to a tire inner surface and being made of a sponge material; a second sound damper disposed on a tire internal space side of the first sound damper , and being made of a sponge material; and a sensor retained to at least the first sound damper , the sensor being configured to detect a displacement of the tire inner surface or a physical quantity calculable based on the displacement of the tire inner surface, characterized in that the first sound damper has a hardness greater than a hardness of the second sound damper , the "hardness" being defined as a value measured in accordance with the Method A in Section 6.4 of the test methods described in "Hardness Tests" in Section 6 of JIS K6400-2 .
A refrigerator comprising: a cabinet defining a storage space; a door configured to open and close the storage space; a gap adjusting member provided between the door and the cabinet and configured to adjust a gap between the door and the cabinet ; and a seating part provided at one of the door and the cabinet and configured to support the gap adjusting member in different orientations, wherein the gap adjusting member includes: a contact part having a rear surface configured to be in contact with the other one of the door and the cabinet in a state where the door is closed, and a plurality of adjusting parts protruding from a front surface of the contact part toward the seating part at different heights, the front surface being opposite to the rear surface of the contact part ; and wherein the gap adjusting member and the seating part are configured to adjust a gap between the door and the cabinet corresponding to one of the adjusting parts which is in contact with the seating part depending on a selected orientation of the gap adjusting member , wherein the orientation of the gap adjusting member is selectable by rotating the gap adjusting member and connecting the gap adjusting member in the selected orientation to the seating part . a cabinet defining a storage space; a door configured to open and close the storage space; a gap adjusting member provided between the door and the cabinet and configured to adjust a gap between the door and the cabinet ; and a seating part provided at one of the door and the cabinet and configured to support the gap adjusting member in different orientations, wherein the gap adjusting member includes: a contact part having a rear surface configured to be in contact with the other one of the door and the cabinet in a state where the door is closed, and a plurality of adjusting parts protruding from a front surface of the contact part toward the seating part at different heights, the front surface being opposite to the rear surface of the contact part ; and a contact part having a rear surface configured to be in contact with the other one of the door and the cabinet in a state where the door is closed, and a plurality of adjusting parts protruding from a front surface of the contact part toward the seating part at different heights, the front surface being opposite to the rear surface of the contact part ; and wherein the gap adjusting member and the seating part are configured to adjust a gap between the door and the cabinet corresponding to one of the adjusting parts which is in contact with the seating part depending on a selected orientation of the gap adjusting member , wherein the orientation of the gap adjusting member is selectable by rotating the gap adjusting member and connecting the gap adjusting member in the selected orientation to the seating part .
Method for determining a steering position in a vehicle steering system having a variable transmission, the vehicle steering system comprising the following: - a steering input shaft by means of which a manual steering torque of the driver can be applied to an actuating element coupled to the vehicle wheels, the steering input shaft and the actuating element being coupled to one another via a gear stage having a variable transmission; - a steering assistance motor configured to apply an assisting force to the actuating member ; - a first angle encoder for determining an angular position of the steering input shaft ; - a second angle encoder for determining an angular position of the steering assistance motor , the method comprising: - obtaining measured values from the first angle encoder and from the second angle encoder , a present transmission ratio being derived from the measured values; - determining the steering position on the basis of the measured values, characterized in that the same transmission ratio is present for a plurality of steering positions, a plurality of measured values being obtained for the unambiguous assignment of the transmission ratio to a steering position and the steering position of each angle encoder being determined thereby and a change in the transmission ratio in the form of an increase or decrease also being determined on the basis of a change in the measured values from each angle encoder , and in that a comparison is carried out of the present transmission ratio with information which describes the relationship between a steering position and values of the transmission ratio, the information describing the relationship being present in the form of a characteristic or as a data table and being determined on the basis of a measurement of a geometry of the actuating element or on the basis of steering processes carried out. - a steering input shaft by means of which a manual steering torque of the driver can be applied to an actuating element coupled to the vehicle wheels, the steering input shaft and the actuating element being coupled to one another via a gear stage having a variable transmission; - a steering assistance motor configured to apply an assisting force to the actuating member ; - a first angle encoder for determining an angular position of the steering input shaft ; - a second angle encoder for determining an angular position of the steering assistance motor , - obtaining measured values from the first angle encoder and from the second angle encoder , a present transmission ratio being derived from the measured values; - determining the steering position on the basis of the measured values,
A method of managing reservations comprising: receiving by a storage controller from a first host controller of a multi-host storage system, a first reservation command comprising a first host identifier to identify the first host controller, the first reservation command requesting access to a storage drive that is shared by a second host controller; modifying by the storage controller , the first reservation command, to produce a modified reservation command, by replacing the first host identifier with a first logical unit identifier that is associated with the first host controller and that identifies a first logical unit of storage of the storage drive ; receiving, by the storage drive from the storage controller , the modified first reservation command, wherein the first reservation command is compatible with a Nonvolatile Memory Express "NVMe" over Fabrics standard, and the modified first reservation command is compatible with the NVMe standard; responsive to receiving the modified first reservation command, identifying, by the storage drive , the first logical unit of storage of the storage drive based on the first logical unit identifier of the modified reservation command; holding, by the storage drive , a reservation for the first logical unit of storage; and granting, by the storage drive , access to the first logical unit of storage and a second logical unit of storage on behalf of the first host controller, rather than the second host controller, by associating the reservation held for the first logical unit with the second logical unit of storage. receiving by a storage controller from a first host controller of a multi-host storage system, a first reservation command comprising a first host identifier to identify the first host controller, the first reservation command requesting access to a storage drive that is shared by a second host controller; modifying by the storage controller , the first reservation command, to produce a modified reservation command, by replacing the first host identifier with a first logical unit identifier that is associated with the first host controller and that identifies a first logical unit of storage of the storage drive ; receiving, by the storage drive from the storage controller , the modified first reservation command, wherein the first reservation command is compatible with a Nonvolatile Memory Express "NVMe" over Fabrics standard, and the modified first reservation command is compatible with the NVMe standard; responsive to receiving the modified first reservation command, identifying, by the storage drive , the first logical unit of storage of the storage drive based on the first logical unit identifier of the modified reservation command; holding, by the storage drive , a reservation for the first logical unit of storage; and granting, by the storage drive , access to the first logical unit of storage and a second logical unit of storage on behalf of the first host controller, rather than the second host controller, by associating the reservation held for the first logical unit with the second logical unit of storage.
Electric fluid heating device for a motor vehicle, comprising: - at least one fluid inlet , - at least one fluid outlet (11; 12a, 12b), - at least one heating element (13; 13a, 13b) for electrically heating the fluid, - at least one first temperature sensor (21; 21a, 21b) arranged so as to measure the temperature of said at least one heating element (13; 13a, 13b), and - a control module for said at least one heating element (13; 13a, 13b), characterized in that : - said device also comprises at least one second temperature sensor (23; 23a, 23b) arranged so as to measure the temperature of the fluid at said at least one outlet (11; 12a, 12b) of said device , and in that - the control module comprises at least one processing means (17; 17a, 17b, 19, 35; 35a, 35b) for: • processing the temperature information (T 21 ; T 21a , T 21b , T 23 ; T 23a , T 23b ) from the first (21; 21a, 21b) and second (23; 23a, 23b) temperature sensors, and for • generating a command for said at least one heating element (13; 13a, 13b) as a function of the temperature information (T 21 ; T 21a , T 21b , T 23 ; T 23a , T 23b ) from the first (21; 21a, 21b) and second (23; 23a, 23b) temperature sensors, so as to regulate the temperature of the fluid in the heating device . - at least one fluid inlet , - at least one fluid outlet (11; 12a, 12b), - at least one heating element (13; 13a, 13b) for electrically heating the fluid, - at least one first temperature sensor (21; 21a, 21b) arranged so as to measure the temperature of said at least one heating element (13; 13a, 13b), and - a control module for said at least one heating element (13; 13a, 13b), - said device also comprises at least one second temperature sensor (23; 23a, 23b) arranged so as to measure the temperature of the fluid at said at least one outlet (11; 12a, 12b) of said device , and in that - the control module comprises at least one processing means (17; 17a, 17b, 19, 35; 35a, 35b) for: • processing the temperature information (T 21 ; T 21a , T 21b , T 23 ; T 23a , T 23b ) from the first (21; 21a, 21b) and second (23; 23a, 23b) temperature sensors, and for • generating a command for said at least one heating element (13; 13a, 13b) as a function of the temperature information (T 21 ; T 21a , T 21b , T 23 ; T 23a , T 23b ) from the first (21; 21a, 21b) and second (23; 23a, 23b) temperature sensors, so as to regulate the temperature of the fluid in the heating device . • processing the temperature information (T 21 ; T 21a , T 21b , T 23 ; T 23a , T 23b ) from the first (21; 21a, 21b) and second (23; 23a, 23b) temperature sensors, and for • generating a command for said at least one heating element (13; 13a, 13b) as a function of the temperature information (T 21 ; T 21a , T 21b , T 23 ; T 23a , T 23b ) from the first (21; 21a, 21b) and second (23; 23a, 23b) temperature sensors, so as to regulate the temperature of the fluid in the heating device .
A gas turbine engine (100;200;300) comprising a compressor section having a downstream most end and a cooling air tap at a location spaced upstream from said downstream most end , said cooling air tap being passed through at least one boost compressor and at least one heat exchanger , said boost compressor being driven by a driveshaft which is driven by said turbine section, and a boost turbine for selectively driving said boost compressor , characterized in that : the at least one heat exchanger is configured to pass air to a turbine section to cool said turbine section; and a mixing chamber configured to receive air downstream of said boost compressor and selectively receive air from a location , which has been compressed by said compressor section to a pressure higher than a pressure of said cooling air tap , said mixing chamber configured to control a mixture of said airflow downstream of said boost compressor , and said air from said location to selectively deliver a mixture of said two airflows to said turbine section.. the at least one heat exchanger is configured to pass air to a turbine section to cool said turbine section; and a mixing chamber configured to receive air downstream of said boost compressor and selectively receive air from a location , which has been compressed by said compressor section to a pressure higher than a pressure of said cooling air tap , said mixing chamber configured to control a mixture of said airflow downstream of said boost compressor , and said air from said location to selectively deliver a mixture of said two airflows to said turbine section..
Textile with an active outside surface and an active inside surface comprising optical fibers covering at least partially the active outside surface , wherein the active outside surface captures light, which is transmitted by the optical fibers to the active inside surface characterized in that the textile is made of a material comprising melanin or derivatives of melanin, wherein the optical fibers are passed through a material layer of the textile , wherein light is captured with ends of of the optical fibers on the active outside surface , whereupon the light is passed through a material layer of the textile by transmitting through the optical fibers to the active or optical inside surface , and wherein from opposing ends of the optical fibers which are arranged on the active inside surface or which form the active or optical inside surface the light is dissipated to the skin of a human who is covered with the textile .
An oscillating positive expiratory pressure device including: a housing including a bottom wall and a surrounding wall that extends upwardly from said bottom wall , said bottom wall having an inclined enclosing surface that extends downwardly and that terminates at an opening ; a top cover connected to said surrounding wall , and cooperating with said bottom wall and said surrounding wall to define an accommodating space (S); and an oscillating unit swingably connected to said housing and disposed within said accommodating space (S), said oscillating unit including a swing member that includes a swing arm , a first swing block connected to one end of said swing arm , and a second swing block connected to another end of said swing arm , and adjacent to said opening , a first weighting piece that is carried on said first swing block , and a second weighting piece that is carried on said second swing block , said swing arm being swingable to move said second swing block to block and unblock said opening ; characterized in that the first swing block is configured and adapted to carry said first weighting piece of variable weights and the second swing block is configured and adapted to carry said second weighting piece of variable weights to change an oscillating frequency of said oscillating unit . a housing including a bottom wall and a surrounding wall that extends upwardly from said bottom wall , said bottom wall having an inclined enclosing surface that extends downwardly and that terminates at an opening ; a top cover connected to said surrounding wall , and cooperating with said bottom wall and said surrounding wall to define an accommodating space (S); and an oscillating unit swingably connected to said housing and disposed within said accommodating space (S), said oscillating unit including a swing member that includes a swing arm , a first swing block connected to one end of said swing arm , and a second swing block connected to another end of said swing arm , and adjacent to said opening , a first weighting piece that is carried on said first swing block , and a second weighting piece that is carried on said second swing block , said swing arm being swingable to move said second swing block to block and unblock said opening ; a swing member that includes a swing arm , a first swing block connected to one end of said swing arm , and a second swing block connected to another end of said swing arm , and adjacent to said opening , a swing arm , a first swing block connected to one end of said swing arm , and a second swing block connected to another end of said swing arm , and adjacent to said opening , a first weighting piece that is carried on said first swing block , and a second weighting piece that is carried on said second swing block , said swing arm being swingable to move said second swing block to block and unblock said opening ; characterized in that the first swing block is configured and adapted to carry said first weighting piece of variable weights and the second swing block is configured and adapted to carry said second weighting piece of variable weights to change an oscillating frequency of said oscillating unit .