mhurhangee/patent-ind-claim-en huggingface dataset:
Singling belt unit for separating products (P) from each other, with a) a container belt unit comprising - a container belt , - at least one fixedly positioned container deflecting roller over which the container belt passes and sags upstream thereof to form an open-topped container loop for storing products (P), - a container drive for moving the container band over the container deflecting roller , - a container control (20*) to control the size of the container loop , b) a removal belt unit downstream of the container loop for removing the products (P) coming out of the container loop via the container deflecting roller , comprising - a removal conveyor , - a removal drive for the removal belt for moving at least one of the deflecting rollers of the removal belt unit , - a removal control (30*) for controlling the removal drive , characterized in that - the container belt unit has a spring loop with a spring-loaded deflecting roller which is movable in the direction of increasing or decreasing the size of the spring loop , and in that - the container belt unit comprises two side walls (24a, b) closing the sides of the container loop . a) a container belt unit comprising - a container belt , - at least one fixedly positioned container deflecting roller over which the container belt passes and sags upstream thereof to form an open-topped container loop for storing products (P), - a container drive for moving the container band over the container deflecting roller , - a container control (20*) to control the size of the container loop , - a container belt , - at least one fixedly positioned container deflecting roller over which the container belt passes and sags upstream thereof to form an open-topped container loop for storing products (P), - a container drive for moving the container band over the container deflecting roller , - a container control (20*) to control the size of the container loop , b) a removal belt unit downstream of the container loop for removing the products (P) coming out of the container loop via the container deflecting roller , comprising - a removal conveyor , - a removal drive for the removal belt for moving at least one of the deflecting rollers of the removal belt unit , - a removal control (30*) for controlling the removal drive , - a removal conveyor , - a removal drive for the removal belt for moving at least one of the deflecting rollers of the removal belt unit , - a removal control (30*) for controlling the removal drive , - the container belt unit has a spring loop with a spring-loaded deflecting roller which is movable in the direction of increasing or decreasing the size of the spring loop , and in that - the container belt unit comprises two side walls (24a, b) closing the sides of the container loop .
A method comprising: providing a handshake initiator with a shared group key, a group key identifier and a group identifier, the group identifier identifying the group members, wherein the group comprises at least three members; generating a group temporal key identifier; generating an initiator random number; creating an initiating message comprising the group identifier, the group key identifier, the group temporal key identifier, and the initiator random number; providing the other group members with configuration information for determining a predetermined set of group members ; sending the initiating message to other group members ; receiving a response message from at least one group member of the predetermined set of group members, the response message comprising a random number; and calculating the group temporal key with at least a key derivation function, the shared group key identified by the group key identifier, the initiator random number and the received random numbers, when a response message has been received from each member of the predetermined set of group members, and wherein the group temporal key is calculated independently at both the handshake initiator and at each of the group members. providing a handshake initiator with a shared group key, a group key identifier and a group identifier, the group identifier identifying the group members, wherein the group comprises at least three members; generating a group temporal key identifier; generating an initiator random number; creating an initiating message comprising the group identifier, the group key identifier, the group temporal key identifier, and the initiator random number; providing the other group members with configuration information for determining a predetermined set of group members ; sending the initiating message to other group members ; receiving a response message from at least one group member of the predetermined set of group members, the response message comprising a random number; and calculating the group temporal key with at least a key derivation function, the shared group key identified by the group key identifier, the initiator random number and the received random numbers, when a response message has been received from each member of the predetermined set of group members, and wherein the group temporal key is calculated independently at both the handshake initiator and at each of the group members.
A vehicle battery pack support device for suspending a battery pack at a side rail constituting a ladder frame of a vehicle , the device comprising: a frame-side bracket spaced apart to an outer side face of the rail , and secured, by bolts , to the outer side face of the side rail at a plurality of bolt fastening parts thereof arrayed in a grid arrangement; and a spacer interposed between the outer side face of the side rail and the frame-side bracket , characterized in that the vehicle battery pack support device further comprises an elastic coupling part elastically coupling the battery pack and the frame-side bracket ; and the spacer including a plurality of columnar members corresponding to the plurality of bolt fastening parts , a connecting part connecting the plurality of columnar members , and lower extensions , the lower extensions extending downward further than the bottom surface of the side rails in the vehicle height direction (Z). a frame-side bracket spaced apart to an outer side face of the rail , and secured, by bolts , to the outer side face of the side rail at a plurality of bolt fastening parts thereof arrayed in a grid arrangement; and a spacer interposed between the outer side face of the side rail and the frame-side bracket , characterized in that the vehicle battery pack support device further comprises an elastic coupling part elastically coupling the battery pack and the frame-side bracket ; and the spacer including a plurality of columnar members corresponding to the plurality of bolt fastening parts , a connecting part connecting the plurality of columnar members , and lower extensions , the lower extensions extending downward further than the bottom surface of the side rails in the vehicle height direction (Z).
A machine for forming and profiling a metal tubular product, for instance a pipe, by means of pressurized fluids and profiling tools comprising a fluid-dynamics control unit , a pusher suitable for pushing the metal tubular product, a vise , a mold suitable for determining the desired profile of the metal tubular product through a forming process, a first injector 6 and a second injector , at least one of said injectors being provided with at least one battery of profiling tools characterized in that said first injector is provided with at least two radial channels (6 1 and 6 2 ) and at least two retractable gaskets (8 1 and 8 2 ) that are self-centering during its expansion step, said second injector in a position specular with respect to the first injector is provided with one radial channel (9 1 ) only and one gasket (8 1 ) only, or alternatively is provided with two radial channels (9 1 and 9 2 ) and two gaskets (8 1 and 8 2 ), said battery of profiling tools is placed next to at least one of the injectors (6 or 9) and wherein said at least one injector next to the battery is able to move back when pipe forming is over, going out of the pipe and moving along the X axis or along the Z axis thus leaving space for the operation of the profiling tool specified by the work cycle.
A packaging machine in order to provide coating of bed, bed base, bed headboard and similar products with a plastic-based coating material and in order to provide packaging of said products and having a coating unit provided between an input conveyor and a passage conveyor , and at least one upper carrier whereon the coating materials can be positioned and a lower carrier provided such that there is a predetermined distance between the upper carrier and the lower carrier and a coating unit comprising at least one welding unit in order to provide welding of the coating materials, coming from the upper carrier and the lower carrier , to each other; characterized in that the coating unit is configured to move between an operation position (II) where it is positioned in an operation region defined between the input conveyor and the passage conveyor and a waiting position (I) where it is positioned in a waiting region provided in the vicinity of the operation region.
A method of producing a fertiliser composition, the method comprising: (a) providing partially decomposed organic matter; (b) contacting the organic matter with: (i) an anaerobic digestate; (ii) calcium nitrate; (iii) a source of ammonia; wherein step (b) involves preparing a composition comprising (i) an anaerobic digestate, (ii) the calcium nitrate, and (iii) the source of ammonia; and contacting the resultant mixture with partially decomposed organic matter, and (c) contacting the mixture obtained in step (b) with a source of carbon dioxide. (a) providing partially decomposed organic matter; (b) contacting the organic matter with: (i) an anaerobic digestate; (ii) calcium nitrate; (iii) a source of ammonia; wherein step (b) involves preparing a composition comprising (i) an anaerobic digestate, (ii) the calcium nitrate, and (iii) the source of ammonia; and contacting the resultant mixture with partially decomposed organic matter, and (i) an anaerobic digestate; (ii) calcium nitrate; (iii) a source of ammonia; (c) contacting the mixture obtained in step (b) with a source of carbon dioxide.
A multiband antenna transmission device, comprising: a driving gear ; a shifter , wherein the shifter and the driving gear are coaxially and rotatably arranged, and the shifter comprises a plate and a boss protruding from a side of the plate ; and a plurality of screw assemblies , arranged in a circumferential direction of the driving gear , with each of the plurality of screw assemblies comprising: a lead screw , a driven gear , and a first elastic member arranged between the lead screw and the driven gear ; characterized in that the driven gear is selectively connected with or separated from the lead screw ; and the multiband antenna transmission device is configured such that the boss sequentially pushes the driven gear of one of the plurality of screw assemblies, during rotation of the shifter , into connection with the corresponding lead screw and into mesh with the driving gear for transmission. a driving gear ; a shifter , wherein the shifter and the driving gear are coaxially and rotatably arranged, and the shifter comprises a plate and a boss protruding from a side of the plate ; and a plurality of screw assemblies , arranged in a circumferential direction of the driving gear , with each of the plurality of screw assemblies comprising: a lead screw , a driven gear , and a first elastic member arranged between the lead screw and the driven gear ; characterized in that the driven gear is selectively connected with or separated from the lead screw ; and the multiband antenna transmission device is configured such that the boss sequentially pushes the driven gear of one of the plurality of screw assemblies, during rotation of the shifter , into connection with the corresponding lead screw and into mesh with the driving gear for transmission.
An oleodynamic braking distributor for an agricultural or forestry vehicle (VI) comprising a body where a slide valve is obtained, arranged to control the operation of a servo-valve ; said servo-valve being configured to control a towed vehicle (VII) connected, in use, to said agricultural or forestry vehicle (VI); wherein said body of the distributor (D) has a dispensing chamber having, in turn, a first inlet for a first high-pressure oil delivery (PI) and a first outlet for the discharge; wherein the dispensing chamber further has a drive assembly operated by a control oil delivery (Y) and a second outlet for the discharge (T); wherein the slide valve comprises a first seat , which is arranged inside said dispensing chamber and is interposed between said first inlet and said first outlet ; characterised in that the distributor (D) comprises a switching system , which is configured to change, depending on the type of towed vehicle (VII) connected to the distributor (D), the surface of said first seat exposed to the oil coming from the first high-pressure oil delivery (PI).
A primary motion generator for use in a motion simulator for moving a primary payload of 80 kg or more above a surface , the primary motion generator being a parallel manipulator comprising: a) a primary frame or platform for supporting the primary payload of 80 kg or more , b) three elongate linear guides arranged transversely to each other below the frame in a planar array, c) at least one actuator arranged per linear guide above the surface, and controllable to move the linear guides whereby the primary frame and payload of 80 kg or more is movable in at least three degrees of freedom. a) a primary frame or platform for supporting the primary payload of 80 kg or more , b) three elongate linear guides arranged transversely to each other below the frame in a planar array, c) at least one actuator arranged per linear guide above the surface, and controllable to move the linear guides whereby the primary frame and payload of 80 kg or more is movable in at least three degrees of freedom.
Overvoltage protection device for an electric drive, which is configured to be connected to an on-board network of a vehicle and is configured to reduce an overvoltage generated in the on-board network by switching off a consumer load, characterized in that the overvoltage protection device is connected to a control unit for an electronically commutated electrical machine and the overvoltage protection device comprises an input for an on-board network voltage and is configured to detect an exceeding of a predetermined voltage value and to generate an overvoltage signal as a function of the voltage value , wherein the control unit is configured to transfer the electrical machine from the generator mode into an at least partially lossy mode or into a motor mode as a function of the overvoltage signal.
A microphone and pressure sensor package, comprising: - a carrier with an opening , - a microphone device including a diaphragm and a perforated back plate arranged above the opening , - an ASIC device , - a cover forming a cavity between the carrier and the cover , the ASIC device and the microphone device being arranged in the cavity , and - a sensor element provided for a pressure sensor, wherein a pressure that is present outside the cavity is transferred to the sensor element through the opening , the diaphragm , and the back plate , characterized in that - a bottom device is fastened between the carrier and the ASIC device , the bottom device comprising an insulator, glass, an electrically inactive semiconductor substrate or a further ASIC device electrically connected with the microphone device , - an adhesive layer comprising silicone is present between the bottom device and the ASIC device , - the sensor element provided for the pressure sensor is for capacitive read-out and is integrated in the ASIC device on top of a CMOS read-out circuit, - the ASIC device comprises an overhang , which is not above the bottom device , and - the sensor element is on the overhang . - a carrier with an opening , - a microphone device including a diaphragm and a perforated back plate arranged above the opening , - an ASIC device , - a cover forming a cavity between the carrier and the cover , the ASIC device and the microphone device being arranged in the cavity , and - a sensor element provided for a pressure sensor, wherein a pressure that is present outside the cavity is transferred to the sensor element through the opening , the diaphragm , and the back plate , - a bottom device is fastened between the carrier and the ASIC device , the bottom device comprising an insulator, glass, an electrically inactive semiconductor substrate or a further ASIC device electrically connected with the microphone device , - an adhesive layer comprising silicone is present between the bottom device and the ASIC device , - the sensor element provided for the pressure sensor is for capacitive read-out and is integrated in the ASIC device on top of a CMOS read-out circuit, - the ASIC device comprises an overhang , which is not above the bottom device , and - the sensor element is on the overhang . - the ASIC device comprises an overhang , which is not above the bottom device , and - the sensor element is on the overhang .
A system for dispersing living biological control agents, the system comprising: - a reservoir of living biological control agents in liquid phase, - a source of air under pressure, - a nozzle , the nozzle being connected to the biological control agent reservoir by a biological control agent line , and to the pressurized air source by a pressurized air line , the nozzle comprising a mouthpiece , the biological control agent line having a liquid phase outlet configured to allow a liquid phase jet to exit the mouthpiece in a main direction , and the pressurized air line having at least one air outlet , characterized in that the mouthpiece comprises a wall , the liquid phase outlet being defined by an orifice on the wall of the mouthpiece , the air outlet(s) being arranged on the wall of the mouthpiece , the shape of the wall being configured to direct a main air flow exiting from the air outlet(s) convergently towards the liquid phase jet , the main air flow preferably being axially symmetrical with respect to the main direction . the system comprising: - a reservoir of living biological control agents in liquid phase, - a source of air under pressure, - a nozzle , the nozzle being connected to the biological control agent reservoir by a biological control agent line , and to the pressurized air source by a pressurized air line , the nozzle comprising a mouthpiece , the biological control agent line having a liquid phase outlet configured to allow a liquid phase jet to exit the mouthpiece in a main direction , and the pressurized air line having at least one air outlet , - a reservoir of living biological control agents in liquid phase, - a source of air under pressure, - a nozzle , the nozzle being connected to the biological control agent reservoir by a biological control agent line , and to the pressurized air source by a pressurized air line , the nozzle comprising a mouthpiece , the biological control agent line having a liquid phase outlet configured to allow a liquid phase jet to exit the mouthpiece in a main direction , and the pressurized air line having at least one air outlet , characterized in that the mouthpiece comprises a wall , the liquid phase outlet being defined by an orifice on the wall of the mouthpiece , the air outlet(s) being arranged on the wall of the mouthpiece , the shape of the wall being configured to direct a main air flow exiting from the air outlet(s) convergently towards the liquid phase jet , the main air flow preferably being axially symmetrical with respect to the main direction .
Security substrate for documents of value, such as a banknote , a cheque, a credit card or other payment card, an identity card or the like, which has a front and a back side, covers a given area when seen in plan view and has: - a first carrier film , which extends over at least 50% of the given area, - a substantially opaque layer , which is arranged on top of the first carrier film and covers at least 25%, preferably more than 50% and particularly preferably more than 75% of the given area, - a first print receiving layer arranged on top of the opaque layer , and - at least one relief structure , which is arranged between the first opaque layer and the first carrier film and is provided with a reflection-increasing coating , which together with the relief structure or on its own produces an optically variable effect, characterized in that a translucent chromatic colour which influences a perception of the colour of the optically variable effect is printed on top of or underneath the reflection-increasing coating . - a first carrier film , which extends over at least 50% of the given area, - a substantially opaque layer , which is arranged on top of the first carrier film and covers at least 25%, preferably more than 50% and particularly preferably more than 75% of the given area, - a first print receiving layer arranged on top of the opaque layer , and - at least one relief structure , which is arranged between the first opaque layer and the first carrier film and is provided with a reflection-increasing coating , which together with the relief structure or on its own produces an optically variable effect, characterized in that a translucent chromatic colour which influences a perception of the colour of the optically variable effect is printed on top of or underneath the reflection-increasing coating .
Motor vehicle having at least two radar sensors (2a-2h) which each have an antenna arrangement allowing angle measurement in elevation and azimuth, wherein the detection ranges of at least two of the at least two radar sensors (2a-2h) overlap in an overlap region , wherein at least two radar sensors (2a-2h) arranged adjacent to each other and forming an overlap region are installed at different installation heights (7-11) in the motor vehicle , wherein a control device is provided for evaluating the radar data from the radar sensors (2a-2h) and is configured, at least when determining an elevation information for a measured feature located in the overlap region , for common evaluation of all radar data of the radar sensors (2a-2h) measuring in the overlap region , characterised in that the control device is configured, when determining the elevation information, for taking weighted account of the radar data of individual radar sensors (2a-2h) measuring in the overlap region on the basis of a reliability information dependent on the installation height (7-11).
Nasal composition comprising: - a saline base ; - an active agent comprising manganese in combination with copper; - an alkyl poly glucoside; and - a mixture of a first hyaluronic acid having a molecular weight of 20,000 to 50,000 daltons with a second hyaluronic acid having a molecular weight of 100,000 to 300,000 daltons. - a saline base ; - an active agent comprising manganese in combination with copper; - an alkyl poly glucoside; and - a mixture of a first hyaluronic acid having a molecular weight of 20,000 to 50,000 daltons with a second hyaluronic acid having a molecular weight of 100,000 to 300,000 daltons.
A device for the controlled discharge of liquids from a rotationally symmetrical surface, which can be wetted with a liquid, having the rotationally symmetrical surface as well as a two-component dripping edge attached to the surface and formed by an edge , which is arranged concentrically to the rotationally symmetrical surface and which is directed to the outside, and comprising a first and a second shoulder leading away from the dripping edge, wherein the first shoulder is attached to the liquid-wettable surface, characterized in that the first shoulder has a higher surface tension than the second shoulder .