mhurhangee/ep-ind-claims huggingface dataset:
A vertical baler for compacting waste such as e.g. cardboard or plastic, the baler comprising: - a compartment for containing the waste to be compacted, the compartment comprising interior sides; - an opening to the compartment; - a ram arrangement comprising a press plate which is configured for moving vertically inside the compartment for compacting the waste; - a door for providing access to the compartment; - a bale ejector; - an activation member exterior to the compartment; - a grabbing arrangement on one or more of the interior sides of the compartment, and - a triggering arrangement; wherein by activation of the triggering arrangement, the activation member is configured for displacing the grabbing arrangement from an inactivated position to a grabbing position extending partly into the compartment; wherein the grabbing arrangement in the grabbing position is vertically displaceable in the compartment by means of the ram arrangement; wherein the grabbing arrangement is connected to the bale ejector such that a vertical movement of the grabbing arrangement is configured to provide an activation of the bale ejector thereby ejecting a bale from the vertical baler, characterized in that a flexible cable connects the triggering arrangement and the activation member, wherein the flexible cable is a Bowden type cable. - a compartment for containing the waste to be compacted, the compartment comprising interior sides; - an opening to the compartment; - a ram arrangement comprising a press plate which is configured for moving vertically inside the compartment for compacting the waste; - a door for providing access to the compartment; - a bale ejector; - an activation member exterior to the compartment; - a grabbing arrangement on one or more of the interior sides of the compartment, and - a triggering arrangement;
A method of detecting sepsis by measuring a change in turbidity of blood plasma by detecting light transmission through the blood plasma, and correlating a lowering of light transmission with the presence of sepsis, characterised in that the method is performed using a device comprising a disposable assay cartridge with a sample inlet for a whole blood sample, a filter to isolate blood plasma from the whole blood sample, a reaction chamber containing a source of pre-loaded multivalent cations to cause a turbidity change in the blood plasma in the presence of sepsis and a transparent window to measure the change in turbidity.
A semiconductor device comprising: a processor; a memory; an external interface; a plurality of registers (51, 52, 53) for storing data received by the external interface, the data stored in the registers (51, 52, 53) being given a predetermined address per register; a mirror register buffer; and an internal bus (70, 80) connected to the processor, the memory, the external interface, the registers (51, 52, 53), and the mirror register buffer, wherein the registers (51, 52, 53) are configured to output the data directly to the mirror register buffer without passing through the internal bus (70, 80), and wherein the mirror register buffer (60; 160) is configured to set addresses to the data input from the registers (51, 52, 53), the addresses being different from the addresses assigned to the registers (51, 52, 53), and transfer the data directly to the memory without passing through the internal bus (70, 80), wherein the mirror register buffer is configured to set the addresses by making a grouping of the data input from the plurality of registers (51, 52, 53) while giving a same group address and consecutive addresses to a plurality of items of the data. a processor; a memory; an external interface; a plurality of registers (51, 52, 53) for storing data received by the external interface, the data stored in the registers (51, 52, 53) being given a predetermined address per register; a mirror register buffer; and an internal bus (70, 80) connected to the processor, the memory, the external interface, the registers (51, 52, 53), and the mirror register buffer, wherein the registers (51, 52, 53) are configured to output the data directly to the mirror register buffer without passing through the internal bus (70, 80), and wherein the mirror register buffer (60; 160) is configured to set addresses to the data input from the registers (51, 52, 53), the addresses being different from the addresses assigned to the registers (51, 52, 53), and transfer the data directly to the memory without passing through the internal bus (70, 80), wherein the mirror register buffer is configured to set the addresses by making a grouping of the data input from the plurality of registers (51, 52, 53) while giving a same group address and consecutive addresses to a plurality of items of the data.
Backing layer for a multilayer thermal insulation panel for construction, comprising: - a reinforcement layer in fibrous material, characterised by - a cladding layer made on the reinforcement layer; - a fire-resistant layer placed on said cladding layer and comprising expansive graphite, wherein said cladding layer is sandwiched between the fire-resistant layer and said reinforcement layer and is manufactured with a first fluid mineral mixture comprising a resin, additives, fillers and a pigment. - a reinforcement layer in fibrous material, characterised by - a cladding layer made on the reinforcement layer; - a fire-resistant layer placed on said cladding layer and comprising expansive graphite,
A machine for preparing espresso drinks from ground coffee packaged in coffee pods by means of an extraction block and further provided with a coffee dregs container and an empty pod container characterized in that it comprises an opening and emptying device (4, 10, 11) which opens and empties coffee pods in a dry condition and supplies the ground coffee contained therein to said extraction block to dispense an espresso drink, and in that the spent coffee dregs (P E) coming from said extraction block are collected in said coffee dregs container and the empty coffee pods coming from said opening and emptying device (4, 10, 11) are collected in said empty pod container.
A speaker comprising: one or more drivers; an acoustic horn that includes a first side panel and a second side panel, edges of the first and second side panels defining an opening for receiving acoustic outputs from one or more drivers; a manifold disposed between the opening and the one or more drivers, the manifold including a plurality of acoustic passages for connecting the opening to each of the one or more drivers; characterized in that the speaker additionally comprises: an adaptor disposed between the manifold and the acoustic horn, the adaptor including multiple apertures for the plurality of acoustic passages and at least one bending portion, wherein the at least one bending portion is configured to facilitate bending of the adaptor to conform to various profiles of the opening while maintaining a seal between the acoustic horn and the plurality of acoustic passages. one or more drivers; an acoustic horn that includes a first side panel and a second side panel, edges of the first and second side panels defining an opening for receiving acoustic outputs from one or more drivers; a manifold disposed between the opening and the one or more drivers, the manifold including a plurality of acoustic passages for connecting the opening to each of the one or more drivers; characterized in that the speaker additionally comprises: an adaptor disposed between the manifold and the acoustic horn, the adaptor including multiple apertures for the plurality of acoustic passages and at least one bending portion, wherein the at least one bending portion is configured to facilitate bending of the adaptor to conform to various profiles of the opening while maintaining a seal between the acoustic horn and the plurality of acoustic passages.
A dosing apparatus for the poor-flowing pulverous solid materials, comprising a cylindrical hopper with a conical intake-dosing element having its top oriented upwards arranged inside the hopper, dosing ports at the base of the solid cone and transporting blades under the base of the solid cone, connected with a shaft of a driving motor, a diaphragm with a pouring port in the center, a transporting blade block comprising transporting blades and a supporting plate, which is provided with at least one port for powder unloading, wherein: - the transporting blades which are connected with the shaft of the driving motor are mounted under the diaphragm on the supporting plate having the port for powder unloading, - the intake-dosing element of the conoid form comprises a curvilinear generatrix as a cycloid segment, having a ripper on the top of the element that transits to intake-transporting blades, their height increases from the top of the cone to its base, the blades having the form of the Archimedes' spiral and projected on the surface of the cone perpendicular to the cone base with the lower blades part adjoining from the above the dosing port, - the working surface of the transporting blades has a form of the Archimedes' spiral, located on the lower cone base with its external end adjoining the dosing port from the bottom and its internal end adjoining a hub having a crest for the fixation of the transporting blades block, and a port for fixing the shaft of the driving motor of the dosing apparatus. - the transporting blades which are connected with the shaft of the driving motor are mounted under the diaphragm on the supporting plate having the port for powder unloading, - the intake-dosing element of the conoid form comprises a curvilinear generatrix as a cycloid segment, having a ripper on the top of the element that transits to intake-transporting blades, their height increases from the top of the cone to its base, the blades having the form of the Archimedes' spiral and projected on the surface of the cone perpendicular to the cone base with the lower blades part adjoining from the above the dosing port, - the working surface of the transporting blades has a form of the Archimedes' spiral, located on the lower cone base with its external end adjoining the dosing port from the bottom and its internal end adjoining a hub having a crest for the fixation of the transporting blades block, and a port for fixing the shaft of the driving motor of the dosing apparatus.
Method for preventing the deactivation of an impermissible number of components (A, B, C, D) of a rail vehicle of the same type with a plurality of components (A, B, C, D) of the same type, which are each equipped with an assigned control device (2, 3, 4, 5), with which the components (A, B, C, D) can be deactivated by a deactivation command, and wherein a vehicle controller of the rail vehicle is designed to transmit deactivation commands to the control devices (2, 3, 4, 5), wherein the method is executed by computing means in each control device (2, 3, 4, 5) comprising a counter, having the following method steps: - receiving a deactivation command, - incrementing a counter when the deactivation command is addressed to another control device, - comparing the state of the counter with a maximum value, - ignoring the deactivation command when the counter state corresponds to the maximum value, - executing the deactivation command when the counter state is smaller than the maximum value. - receiving a deactivation command, - incrementing a counter when the deactivation command is addressed to another control device, - comparing the state of the counter with a maximum value, - ignoring the deactivation command when the counter state corresponds to the maximum value, - executing the deactivation command when the counter state is smaller than the maximum value.
SO 2 -based electrolyte for a rechargeable battery cell comprising at least a first conducting salt of the formula, wherein - M is a metal selected from the group consisting of alkali metals, alkaline earth metals, metals of group 12 of the periodic table of the elements and aluminum; - x is an integer from 1 to 3; - the substituents R 1, R 2, R 3 and R 4 are independently chosen from the group consisting of C 1 -C 10 alkyl, C 2 -C 10 alkenyl, C 2 -C 10 alkynyl, C 3 -C 10 cycloalkyl, C 6 -C 14 aryl, and C 5 -C 14 heteroaryl; and - wherein Z is aluminum or boron. - M is a metal selected from the group consisting of alkali metals, alkaline earth metals, metals of group 12 of the periodic table of the elements and aluminum; - x is an integer from 1 to 3; - the substituents R 1, R 2, R 3 and R 4 are independently chosen from the group consisting of C 1 -C 10 alkyl, C 2 -C 10 alkenyl, C 2 -C 10 alkynyl, C 3 -C 10 cycloalkyl, C 6 -C 14 aryl, and C 5 -C 14 heteroaryl; and - wherein Z is aluminum or boron.
A strand of homogenised tobacco material comprising at least one aerosol former, the strand having a mass to surface area ratio of at least 0.09 mg/mm 2, an aerosol former content of between 12% and 25% by weight and a density of between 1100 mg/cm 3 and 1450 mg/cm 3.
A composite component in which a flat structure formed with fibers and having free spaces and/or hollow spaces is encompassed at least regionally at two oppositely disposed surfaces by a respective element consisting of a metal, and the flat structure is connected to the elements with material continuity and/or with shape matching, wherein a connection with material continuity and/or shape matching is achieved by sintering by means of reinforcement elements that are led through hollow spaces or free spaces in the structure and that are aligned perpendicular to the plane of the flat structure at least in the region of the structure; and a connection of the structure to the elements with material continuity and/or shape matching has been achieved by a sintering of at least one metallic powder in which at least one metallic element can be manufactured from the powder in that free spaces or hollow spaces of the structure are filled with metal.
A method for encoding a video sequence, comprising the following steps by a processing unit of an encoding device: - splitting a digital image from the video sequence into blocks of values; - for each block: ∘ transforming the values of the block into transform coefficients; ∘ organizing the transform coefficients of the block into several non-overlapping sets of transform coefficients; ∘ for each set of transform coefficients, quantizing the transform coefficients into quantized coefficients; ∘ encoding the block using the quantized coefficients; - encoding the video sequence based on the encoding of the blocks; characterized in that the quantizing step comprises for quantized coefficients corresponding to one set of transform coefficients: ∘ comparing a sum value representing a result of summing magnitudes of the quantized coefficient values with a threshold, the threshold depending on the number of the summed quantized coefficients, the quantized coefficient magnitudes to be summed being those comprised within a predefined range; and ∘ setting the quantized coefficients of the set of transform coefficients to zero if the summing result is below the threshold. - splitting a digital image from the video sequence into blocks of values; - for each block: ∘ transforming the values of the block into transform coefficients; ∘ organizing the transform coefficients of the block into several non-overlapping sets of transform coefficients; ∘ for each set of transform coefficients, quantizing the transform coefficients into quantized coefficients; ∘ encoding the block using the quantized coefficients; ∘ transforming the values of the block into transform coefficients; ∘ organizing the transform coefficients of the block into several non-overlapping sets of transform coefficients; ∘ for each set of transform coefficients, quantizing the transform coefficients into quantized coefficients; ∘ encoding the block using the quantized coefficients; - encoding the video sequence based on the encoding of the blocks; characterized in that the quantizing step comprises for quantized coefficients corresponding to one set of transform coefficients: ∘ comparing a sum value representing a result of summing magnitudes of the quantized coefficient values with a threshold, the threshold depending on the number of the summed quantized coefficients, the quantized coefficient magnitudes to be summed being those comprised within a predefined range; and ∘ setting the quantized coefficients of the set of transform coefficients to zero if the summing result is below the threshold. ∘ comparing a sum value representing a result of summing magnitudes of the quantized coefficient values with a threshold, the threshold depending on the number of the summed quantized coefficients, the quantized coefficient magnitudes to be summed being those comprised within a predefined range; and ∘ setting the quantized coefficients of the set of transform coefficients to zero if the summing result is below the threshold.
Device for verifying a machine-readable security feature of a document of value (3; 3-1, 3-2), wherein the device has: • a transport device configured to transport the document of value (3; 3-1, 3-2) through the device on a transport plane in a transport direction, wherein a first flat side and a second flat side, opposite said first flat side, of the document of value (3; 3-1, 3-2) extend parallel to the transport plane, • a radiation emitter (9; 9-1, 9-2) that is arranged on the first flat side and is configured to emit at least infrared radiation in the direction towards the first flat side, wherein the emitted radiation is configured to excite luminescent radiation of the security feature of the document of value (3; 3-1, 3-2), and the emitted radiation is further configured to pass at least partly through the document of value, • a sensor that is arranged on the first flat side and is configured to receive at least part of the luminescent radiation and of the emitted radiation, • a reflector that is arranged and configured on the second flat side so as to reflect the emitted radiation, passing through the document of value (3; 3-1, 3-2), of the radiation emitter (9; 9-1, 9-2) and the luminescent radiation of the security feature of the document of value (3; 3-1, 3-2) at least partly to the sensor, and • an evaluation unit configured to control the radiation emitter (9; 9-1, 9-2) and to receive the signals output by the sensor, wherein the radiation emitter (9; 9-1, 9-2) has a first component radiation emitter and a second component radiation emitter and the sensor is a photodiode, is tuned to the spectrum of the radiation emitter (9; 9-1, 9-2) and is arranged between the first component radiation emitter and the second component radiation emitter along a direction transverse to the transport direction. • a transport device configured to transport the document of value (3; 3-1, 3-2) through the device on a transport plane in a transport direction, wherein a first flat side and a second flat side, opposite said first flat side, of the document of value (3; 3-1, 3-2) extend parallel to the transport plane, • a radiation emitter (9; 9-1, 9-2) that is arranged on the first flat side and is configured to emit at least infrared radiation in the direction towards the first flat side, wherein the emitted radiation is configured to excite luminescent radiation of the security feature of the document of value (3; 3-1, 3-2), and the emitted radiation is further configured to pass at least partly through the document of value, • a sensor that is arranged on the first flat side and is configured to receive at least part of the luminescent radiation and of the emitted radiation, • a reflector that is arranged and configured on the second flat side so as to reflect the emitted radiation, passing through the document of value (3; 3-1, 3-2), of the radiation emitter (9; 9-1, 9-2) and the luminescent radiation of the security feature of the document of value (3; 3-1, 3-2) at least partly to the sensor, and • an evaluation unit configured to control the radiation emitter (9; 9-1, 9-2) and to receive the signals output by the sensor,
A device for accessing an atrium of a heart in a subject so as to perform a surgical procedure upon the atrium, the device comprising: an atrial portal having a proximal end and a distal end and a configuration such that the distal end of the atrial portal can provide cardioscopic access to the atrium by insertion into the atrium wall while the proximal end of the atrial portal can extend to outside of the subject; and a cap at the distal end of said atrial portal that is configured to secure the distal end of the atrial portal in the atrial wall, the cap comprising a distal portion and proximal portion, wherein the cap is formed with a central opening and has an external diameter that widens from the proximal portion to the distal portion; characterized in that the device further comprises at least two elements on the proximal portion of the cap to secure the cap in the atrial wall so as to prevent the atrial portal from being inserted further into the atrium; and a removable dilating introducer at the distal portion of the cap, wherein the dilating introducer is configured so as to be inserted in an opening in the atrial wall so as to enlarge the opening of the atrial wall for insertion of the atrial portal into the atrium.
A docking device for an underwater vehicle, the docking device comprising a docking station able to be connected to a carrier vessel, the docking station comprising a body comprising a stop for blocking a movement of the underwater vehicle relative to the body along a longitudinal axis (x) passing through the stop, in a rear-to-front direction defined by the longitudinal axis (x), the docking station comprising a guiding device comprising a set of arms connected to the body and each comprising a distal end and a proximal end, the arms being distributed around the stop, the set of arms being able to assume a deployed configuration, in which it defines a volume that flares rearward so as to allow the underwater vehicle to be guided towards the stop, the distal end of each arm being located behind the proximal end of the arm in the deployed configuration, the set of arms being able to assume a folded configuration, in which a distal end of each arm of the set of arms is closer to the longitudinal axis (x) than in the deployed configuration and in which the distal end is located in front of the position occupied by the distal end in the deployed configuration so that a length, along the axis x, of a volume defined by the set of arms behind the stop is shorter in the folded configuration than in the deployed configuration, at least one arm of the set being mounted on the body and being configured and/or controlled so that the distal end of the arm advances forwards, while permanently remaining behind the proximal end, during the transition from the deployed configuration to the folded configuration.
A process control method for a 3D-printing process using a 3D printer, said 3D printer having a build platform, a light source, a receiving device for printing material and a control device by means of which an item can be produced in layers or continuously from the printing material, characterised in that a thermal imaging camera, the output signal of which is transmitted to the control device, is connected to the 3D printer, and the method comprising the following steps: • illuminating a layer or parts of said layer positionally selectively, • detecting the temperature of the layer during the polymerisation using the thermal imaging camera, • ending the building process of a layer by ending the illumination, the time for the end of the illumination being established by a predefined temperature T max or a predefined change in temperature dT/dt being reached. • illuminating a layer or parts of said layer positionally selectively, • detecting the temperature of the layer during the polymerisation using the thermal imaging camera, • ending the building process of a layer by ending the illumination, the time for the end of the illumination being established by a predefined temperature T max or a predefined change in temperature dT/dt being reached.