mhurhangee/patent-ind-claim-en huggingface dataset:
A method of making a vacuum insulated refrigerator cabinet structure , the method comprising: thermoforming a first thermoplastic polymer sheet to form a wrapper having a base wall and four sidewalls having inner and outer sides and extending transversely from the base wall to form four elongated inside corners and a main opening; thermoforming a second thermoplastic polymer sheet to form a liner having a base wall and four sidewalls having inner and outer sides and extending transversely from the base wall , wherein each sidewall includes a free edge opposite the base wall forming a main opening ; adhesively securing an elongated corner stiffener to each elongated inside corner of the wrapper , wherein each elongated corner stiffener includes an opening ; securing a resilient ring to the liner adjacent to the free edges of the sidewalls , the resilient ring including four corners and wherein each corner includes a pin projecting from the corner; positioning the liner inside the wrapper to form a cavity between the wrapper and the liner , wherein the pins of the resilient ring are received in the openings of the elongated corner stiffeners , and wherein the resilient ring extends between the inner sides of the wrapper sidewalls and the outer sidewalls of the liner to seal the cavity ; adhesively sealing the resilient ring to the wrapper and to the liner ; causing porous material to be disposed in the cavity between the wrapper and the liner ; forming a vacuum in the cavity ; and sealing the cavity to maintain the vacuum. thermoforming a first thermoplastic polymer sheet to form a wrapper having a base wall and four sidewalls having inner and outer sides and extending transversely from the base wall to form four elongated inside corners and a main opening; thermoforming a second thermoplastic polymer sheet to form a liner having a base wall and four sidewalls having inner and outer sides and extending transversely from the base wall , wherein each sidewall includes a free edge opposite the base wall forming a main opening ; adhesively securing an elongated corner stiffener to each elongated inside corner of the wrapper , wherein each elongated corner stiffener includes an opening ; securing a resilient ring to the liner adjacent to the free edges of the sidewalls , the resilient ring including four corners and wherein each corner includes a pin projecting from the corner; positioning the liner inside the wrapper to form a cavity between the wrapper and the liner , wherein the pins of the resilient ring are received in the openings of the elongated corner stiffeners , and wherein the resilient ring extends between the inner sides of the wrapper sidewalls and the outer sidewalls of the liner to seal the cavity ; adhesively sealing the resilient ring to the wrapper and to the liner ; causing porous material to be disposed in the cavity between the wrapper and the liner ; forming a vacuum in the cavity ; and sealing the cavity to maintain the vacuum.
A distribution machine , in particular a pneumatic fertiliser spreader, for spreading granular agricultural spreading material, with a frame structure carrying the components of the distribution machine , a storage hopper for carrying along and/or supplying the spreading material, as well as with a distribution boom extending transverse to a driving direction (FR), which distribution boom has a carrier , a central part , and side booms swivelably arranged on the central part , wherein distribution tubes with distribution elements are arranged on the distribution boom , and wherein the distribution tubes are suppliable with an air volume flow for conveying the spreading material to the distribution elements , wherein spreading material is meterable into the distribution tubes by means of at least one metering device , which forms a constructional unit with the distribution boom and is operatively connected to the storage hopper , characterised in that the supply of the distribution tubes with an air volume flow is carried out by means of a flow generation device that is operable at variable rotational speeds, wherein the flow generation device is assigned an air flow divider by means of which the air volume flow generated by the flow generation device is divided into a plurality of air volume flows. with a frame structure carrying the components of the distribution machine , a storage hopper for carrying along and/or supplying the spreading material, as well as with a distribution boom extending transverse to a driving direction (FR), which distribution boom has a carrier , a central part , and side booms swivelably arranged on the central part , wherein distribution tubes with distribution elements are arranged on the distribution boom , and wherein the distribution tubes are suppliable with an air volume flow for conveying the spreading material to the distribution elements , wherein spreading material is meterable into the distribution tubes by means of at least one metering device , which forms a constructional unit with the distribution boom and is operatively connected to the storage hopper , characterised in that the supply of the distribution tubes with an air volume flow is carried out by means of a flow generation device that is operable at variable rotational speeds, wherein the flow generation device is assigned an air flow divider by means of which the air volume flow generated by the flow generation device is divided into a plurality of air volume flows.
PEF (pulsed electric field) chamber comprising a PEF treatment tube , a casing and at least two electrode units , characterized in that said at least two electrode units are insertable to be fixated in the casing and into the PEF treatment tube , wherein said at least two electrode units are detachable and wherein said at least two electrode units are arranged to form a semi-circular arc surface within the PEF treatment tube .
Portable electric inflator including an electric air compressor and a box for accommodating the electric air compressor , the electric air compressor including a main frame , a cylinder fitted with a piston body and provided at the main frame , a motor fitted with a cooling fan at its output axle and mounted to the main frame , the motor rotating the cooling fan and driving a transmission mechanism to have the piston body conduct reciprocating motion in the cylinder , so that compressed air is produced in the cylinder and transferred to an air storage container ; the box being composed of a cover and a base defining therein a generally L-shaped space for accommodating the cooling fan , the motor , the main frame together with the transmission mechanism, the cylinder with the piston body , and the air storage container of the electric air compressor ; an air entrance port is defined at the box, near a front portion of the generally L-shaped space, and an air exit port is defined at the box, near a rear portion of the generally L-shaped space so that outside air can be drawn by the cooling fan to flow through the air entrance port to enter the box and to flow along the generally L-shaped space and to finally discharge into the environment via the air exit port, thus dissipating heat generated by the electric air compressor ,, characterized in that , a flat bottom of the base is provided with a lower positioning socket and a lower airflow-guiding member within the generally L-shaped space, whereas a flat top of the cover is provided with an upper positioning socket and an upper airflow-guiding member within the generally L-shaped space; the motor defines two openings at its surrounding wall and a plurality of downstream through holes at its bottom wall opposite to the cooling fan ; the main frame is provided with two protrusions corresponding to the upper and lower sockets ; wherein the upper and lower positioning sockets are respectively engaged with the two protrusions to prevent the motor from tilting or turning over; the upper and lower airflow-guiding members respectively have slant surfaces each directed towards one of the openings of the motor , whereby the airflow drawn by the cooling fan can flow through the openings of the motor to enter the interior of the motor and flow out of the motor via the downstream through holes to quickly dissipate the heat generated in the motor .
A connecting mechanism for a cartridge-type replaceable module that has at least one fluid port at each of opposite sides of the module in a longitudinal direction of the module , the connecting mechanism comprising: two connector elements spaced apart in the longitudinal direction of the module and each provided with at least one fluid connector configured to releasably inter-engage with a complementary fluid port of the module at the respective side thereof, wherein at least one of the connector elements is movable to perform a translational movement in the longitudinal direction of the module ; and at least one driver element provided with a receptacle formed to releasably engage with a portion of the module in a form-locking manner and with the at least one movable connector element such that a rotational movement of the module , when engaged with the driver element in operation, about an axis of the module in the longitudinal direction thereof causes the translational movement of the movable connector element via the driver element to establish/release the inter-engagement of the fluid connector(s) of that connector element with the associated fluid port(s) of the module , wherein the engagement between each driver element and the associated movable connector element is a threaded engagement adapted to transmit the rotational movement of the driver element to the translational movement of the connector element . two connector elements spaced apart in the longitudinal direction of the module and each provided with at least one fluid connector configured to releasably inter-engage with a complementary fluid port of the module at the respective side thereof, wherein at least one of the connector elements is movable to perform a translational movement in the longitudinal direction of the module ; and at least one driver element provided with a receptacle formed to releasably engage with a portion of the module in a form-locking manner and with the at least one movable connector element such that a rotational movement of the module , when engaged with the driver element in operation, about an axis of the module in the longitudinal direction thereof causes the translational movement of the movable connector element via the driver element to establish/release the inter-engagement of the fluid connector(s) of that connector element with the associated fluid port(s) of the module , wherein the engagement between each driver element and the associated movable connector element is a threaded engagement adapted to transmit the rotational movement of the driver element to the translational movement of the connector element .
Method for producing a circuit for a chip card module comprising - the provision of an insulating substrate , - the perforation of the insulating substrate in order to form connection wells , - the provision of a conductive layer supported by the insulating substrate , with a first side turned toward the insulating substrate and a second side, - the production, in the conductive layer , of contacts at the level of which o the second side is intended to establish a connection by electrical contact with a chip card reader, and o the first side is intended to establish, at the level of connection wells , an electrical connection with an electronic chip , in which at least two conductive lands , that are electrically isolated from the contacts , are also made in the conductive layer , at the level of which lands the first side of the conductive layer at least partially closes up at least one connection well that is intended to connect the electronic chip to an antenna , characterized by the fact that the chip is connected to a conductive land of the first side of the conductive layer through a connection well and an end of the antenna is connected through this same connection well . - the provision of an insulating substrate , - the perforation of the insulating substrate in order to form connection wells , - the provision of a conductive layer supported by the insulating substrate , with a first side turned toward the insulating substrate and a second side, - the production, in the conductive layer , of contacts at the level of which o the second side is intended to establish a connection by electrical contact with a chip card reader, and o the first side is intended to establish, at the level of connection wells , an electrical connection with an electronic chip , in which at least two conductive lands , that are electrically isolated from the contacts , are also made in the conductive layer , at the level of which lands the first side of the conductive layer at least partially closes up at least one connection well that is intended to connect the electronic chip to an antenna , o the second side is intended to establish a connection by electrical contact with a chip card reader, and o the first side is intended to establish, at the level of connection wells , an electrical connection with an electronic chip ,
A spring compression device , comprising: a spring sleeve configured to receive a spring ; a spring adjustment member provided on and engaged with the spring sleeve and configured to abut a spring mounted on the spring sleeve, wherein: the spring sleeve and spring adjustment member define an operating length (L) of the spring compression device, and the spring adjustment member is configured to be moved relative to the spring sleeve to adjust the operating length of the spring compression device; and at least one blocking component for blocking movement between the spring sleeve and the spring adjustment member, characterised in that an exterior surface of the spring sleeve and an interior surface of the spring adjustment member each have at least one recess which align to form a hole for receiving the blocking component and the hole extends in a direction parallel to a longitudinal axis (R) of the spring sleeve . a spring sleeve configured to receive a spring ; a spring adjustment member provided on and engaged with the spring sleeve and configured to abut a spring mounted on the spring sleeve, wherein: the spring sleeve and spring adjustment member define an operating length (L) of the spring compression device, and the spring adjustment member is configured to be moved relative to the spring sleeve to adjust the operating length of the spring compression device; and the spring sleeve and spring adjustment member define an operating length (L) of the spring compression device, and the spring adjustment member is configured to be moved relative to the spring sleeve to adjust the operating length of the spring compression device; and at least one blocking component for blocking movement between the spring sleeve and the spring adjustment member, characterised in that an exterior surface of the spring sleeve and an interior surface of the spring adjustment member each have at least one recess which align to form a hole for receiving the blocking component and the hole extends in a direction parallel to a longitudinal axis (R) of the spring sleeve .
An implantable stent graft device comprising: a stent frame comprised of one or more elongate members; a covering material attached to the stent frame ; and one or more anchor members extending from the stent frame , characterized in that the one or more anchor members reconfigure from a deployed configuration to an undeployed configuration by an eversion of a portion of the stent frame . a stent frame comprised of one or more elongate members; a covering material attached to the stent frame ; and one or more anchor members extending from the stent frame , characterized in that the one or more anchor members reconfigure from a deployed configuration to an undeployed configuration by an eversion of a portion of the stent frame .
An apparatus configured to support resin molding, comprising: a prediction unit configured to generate a probability distribution of prediction values of analysis target characteristics of a resin molded body, that correspond to values of a plurality of molding factors of the resin molding; and a display processing unit configured to execute display processing for causing a display apparatus to display the probability distribution of the prediction values of the analysis target characteristics, wherein the prediction unit is configured to calculate a change of the probability distribution of the prediction values of the analysis target characteristics when a value of at least one of the plurality of molding factors of the resin molding is changed within a predetermined range, and the display processing unit is configured to execute display processing for causing the display apparatus to display the change of the probability distribution of the prediction values of the analysis target characteristics and to execute display processing for causing the display apparatus to display a range of the molding factors that have a possibility of satisfying a target value of the analysis target characteristics. a prediction unit configured to generate a probability distribution of prediction values of analysis target characteristics of a resin molded body, that correspond to values of a plurality of molding factors of the resin molding; and a display processing unit configured to execute display processing for causing a display apparatus to display the probability distribution of the prediction values of the analysis target characteristics, wherein the prediction unit is configured to calculate a change of the probability distribution of the prediction values of the analysis target characteristics when a value of at least one of the plurality of molding factors of the resin molding is changed within a predetermined range, and the display processing unit is configured to execute display processing for causing the display apparatus to display the change of the probability distribution of the prediction values of the analysis target characteristics and to execute display processing for causing the display apparatus to display a range of the molding factors that have a possibility of satisfying a target value of the analysis target characteristics.
Method for separating plate-shaped workpieces (2.1 to 2.9) from wood or wood substitutes, wherein a plurality of plate-shaped workpieces (2.1 to 2.9) are cut out from a plate-shaped semi-finished product by a number of cuts and are separated wherein first a plurality of cuts are undertaken whereupon the separation of the workpieces (2.1 to 2.7) is carried out by a further cut which connects the plurality of cuts , characterised in that the plurality of cuts are made so that they end in the semi-finished product wherein the end points and/or end regions of some or all of the plurality of cuts in the semi-finished product lie on a stepped line wherein the line extends in a second direction (Y) which is different from the direction of the plurality of cuts , preferably at right angles to the direction of the plurality of cuts , and the further cut is made along this line, wherein the plurality of cuts are made starting from the edge contour of the semi-finished product.
Device for plasma-treatment of substrates comprising a vacuum chamber with a confinement enclosure having a treatment zone and presenting a transport direction along which substrates to be treated are to be moved through the treatment zone, said treatment zone being delimited in a direction transversal to said transport direction by lateral walls of the confinement enclosure , at least one of said lateral walls having an aperture for allowing plasma to enter the treatment zone, wherein said aperture connects to a plasma source external to said treatment zone such that plasma generated by the plasma source can enter the treatment zone through said aperture , characterised in that said at least one wall having said aperture presents means for generating a multipolar magnetic cusp field extending along this wall , wherein this multipolar magnetic cusp field extends at least partially around said aperture and adjacent to this aperture for forming a plasma diffuser panel.
Fluid channel of a container processing system for processing containers, such as bottles, the container processing system comprising a blow molding machine and a container processing machine arranged downstream of the blow molding machine in process direction, wherein the fluid channel is adapted to being arranged downstream of the blow molding machine and upstream of the downstream container processing machine in the process direction and comprising at least one component , through which the fluid can flow and which comprises at least one outlet opening through which the fluid can exit from the fluid channel in direction of a bottom of a container transported in the process direction, wherein the outlet opening is designed as one or more nozzles , characterized in that the component is a component manufactured by a generative manufacturing method, wherein the generative manufacturing method is a method in which the component is manufactured directly from a formless or neutrally formed material by means of chemical and/or physical processes.
A heat exchanger for a vehicle, comprising: • a housing adapted to receive a plurality of heat exchange elements defining air flow passages, • a first waterbox adapted to be in fluid communication with an interior of the housing via a first opening to distribute a coolant around the air flow passages defined by the plurality of heat exchange elements ; and • a second waterbox spaced from the first waterbox and adapted to be in fluid communication with the interior of the housing via a second opening to collect the coolant from the interior the housing , and at least one panel adapted to be aligned with at least one of the first opening and the second opening and to limit flow there-through, each panel comprising: ∘ a plurality of apertures ; characterized in that each panel further comprises ∘ a plurality of deflectors protruding from the apertures towards the inner volume of the respective waterbox , wherein the deflectors are connected to the inner surface of said waterbox . • a housing adapted to receive a plurality of heat exchange elements defining air flow passages, • a first waterbox adapted to be in fluid communication with an interior of the housing via a first opening to distribute a coolant around the air flow passages defined by the plurality of heat exchange elements ; and • a second waterbox spaced from the first waterbox and adapted to be in fluid communication with the interior of the housing via a second opening to collect the coolant from the interior the housing , ∘ a plurality of apertures ; characterized in that each panel further comprises ∘ a plurality of deflectors protruding from the apertures towards the inner volume of the respective waterbox , wherein the deflectors are connected to the inner surface of said waterbox .