mhurhangee/ep-ind-claims huggingface dataset:
Method for supplying sintering material from a sintering belt to a sinter cooler by means of a supply chute, wherein a stream of the sintering material is fed into the supply chute in an infeed region, wherein the sintering material is moved in the direction of the infeed region of the supply chute by the sintering belt, wherein the movement of the sintering material by the sintering belt has a direction of movement with a horizontal main component A, and the sintering material is moved from the infeed region in the direction of an outfeed region of the supply chute by the action of gravity, and, after the infeed, the stream of the sintering material is concentrated by means of a concentrating device, and then is spread out by means of a spreading-out device, and, after this, the spread-out stream of the sintering material, if appropriate after passing through a device for homogenizing the direction of movement of the stream of the sintering material, passes through a segregating device (8, 25) and is segregated in the process, while it is being moved in the direction of the outfeed region, and the stream of the sintering material has a direction of movement with a horizontal main component B as it passes through the outfeed region of the supply chute, and the stream of the sintering material is supplied to the sinter cooler after passing through the outfeed region, characterized in that the horizontal main component B stands largely perpendicularly on the horizontal main component A. wherein a stream of the sintering material is fed into the supply chute in an infeed region, wherein the sintering material is moved in the direction of the infeed region of the supply chute by the sintering belt, wherein the movement of the sintering material by the sintering belt has a direction of movement with a horizontal main component A, and the sintering material is moved from the infeed region in the direction of an outfeed region of the supply chute by the action of gravity, and, after the infeed, the stream of the sintering material is concentrated by means of a concentrating device, and then is spread out by means of a spreading-out device, and, after this, the spread-out stream of the sintering material, if appropriate after passing through a device for homogenizing the direction of movement of the stream of the sintering material, passes through a segregating device (8, 25) and is segregated in the process, while it is being moved in the direction of the outfeed region, and the stream of the sintering material has a direction of movement with a horizontal main component B as it passes through the outfeed region of the supply chute, and the stream of the sintering material is supplied to the sinter cooler after passing through the outfeed region, characterized in that the horizontal main component B stands largely perpendicularly on the horizontal main component A.
A method of transmitting information to a wireless terminal comprising: receiving a request for a transmission reservation from a client application executed at a wireless terminal; using transmission rules stored for the wireless terminal to make a determination whether to grant a transmission reservation responsive to the request for the transmission reservation; after granting the request for the transmission reservation and during a transmission operation toward the wireless terminal associated with the transmission reservation, monitoring the transmission operation for compliance with the transmission rules; controlling bandwidth used by at least a portion of the remainder of the transmission operation in accordance with the monitoring characterized in that the monitoring comprises determining whether a change in a per unit cost of the transmission requires at least a temporary limiting of the bandwidth used by the at least a portion of the remainder of the transmission operation. receiving a request for a transmission reservation from a client application executed at a wireless terminal; using transmission rules stored for the wireless terminal to make a determination whether to grant a transmission reservation responsive to the request for the transmission reservation; after granting the request for the transmission reservation and during a transmission operation toward the wireless terminal associated with the transmission reservation, monitoring the transmission operation for compliance with the transmission rules; controlling bandwidth used by at least a portion of the remainder of the transmission operation in accordance with the monitoring characterized in that the monitoring comprises determining whether a change in a per unit cost of the transmission requires at least a temporary limiting of the bandwidth used by the at least a portion of the remainder of the transmission operation.
A method of down-converting a sampled signal, the method comprising: receiving input samples, representative of a signal, having an initial sampling rate; applying a mixing-and-combining operation to each of a succession of sub-sequences of the input samples to generate a sequence of output samples having an output rate lower than the initial sampling rate, wherein the sub-sequences of the input samples are spaced at intervals that correspond to the output rate, and wherein the mixing-and-combining operation generates a respective output sample from each sub-sequence wherein the output sample depends on a set of products of the input samples of the sub-sequence with respective values derived from a periodic mixing signal having a mixing frequency; wherein: the mixing frequency is not an integer multiple of the output rate; and the method further comprises rotating each output sample through a constant angle relative to the immediately preceding output sample, wherein the constant angle depends on the mixing frequency and on the output rate. receiving input samples, representative of a signal, having an initial sampling rate; applying a mixing-and-combining operation to each of a succession of sub-sequences of the input samples to generate a sequence of output samples having an output rate lower than the initial sampling rate, wherein the sub-sequences of the input samples are spaced at intervals that correspond to the output rate, and wherein the mixing-and-combining operation generates a respective output sample from each sub-sequence wherein the output sample depends on a set of products of the input samples of the sub-sequence with respective values derived from a periodic mixing signal having a mixing frequency; wherein: the mixing frequency is not an integer multiple of the output rate; and the method further comprises rotating each output sample through a constant angle relative to the immediately preceding output sample, wherein the constant angle depends on the mixing frequency and on the output rate. the mixing frequency is not an integer multiple of the output rate; and the method further comprises rotating each output sample through a constant angle relative to the immediately preceding output sample, wherein the constant angle depends on the mixing frequency and on the output rate.
A heating apparatus, comprising: a heater configured to apply heat energy to an object; and control circuitry configured to: control the heater based on a target temperature to which the object is to be heated; characterized in that in response to determining that a first measured temperature sample associated with a first temperature sensor is greater than a first reference temperature, update (328, 330) a first temperature range and the first reference temperature based on the first measured temperature sample; and in response to determining (318, 320) that a second measured temperature sample associated with the first temperature sensor and subsequent to the first measured temperature sample is not within the first temperature range, reduce the priority of the first temperature sensor for control of applying the heat energy to the object. a heater configured to apply heat energy to an object; and control circuitry configured to: control the heater based on a target temperature to which the object is to be heated; characterized in that in response to determining that a first measured temperature sample associated with a first temperature sensor is greater than a first reference temperature, update (328, 330) a first temperature range and the first reference temperature based on the first measured temperature sample; and in response to determining (318, 320) that a second measured temperature sample associated with the first temperature sensor and subsequent to the first measured temperature sample is not within the first temperature range, reduce the priority of the first temperature sensor for control of applying the heat energy to the object. control the heater based on a target temperature to which the object is to be heated; characterized in that in response to determining that a first measured temperature sample associated with a first temperature sensor is greater than a first reference temperature, update (328, 330) a first temperature range and the first reference temperature based on the first measured temperature sample; and in response to determining (318, 320) that a second measured temperature sample associated with the first temperature sensor and subsequent to the first measured temperature sample is not within the first temperature range, reduce the priority of the first temperature sensor for control of applying the heat energy to the object.
Device for metering powder, which comprises a vessel containing powder and a sealing head with a septum for the vessel, and the vessel points downwards with its opening, so that the powder can flow out of the vessel, and the device further has a vessel holder, which serves to hold the sealing head of the vessel, wherein the vessel holder has a cannula for piercing the septum and a gas for fluidizing the downward-flowing powder is fed to the canula, and further a metering system is provided, which is based on the filling of a volume in a connecting hose separable by valves (28, 31), wherein the bulk density of the powder in the connecting hose is kept essentially constant by a gas flow varying with time during the fluidization.
A measurement device comprising: a transmitter for providing a transmitted signal; a signal splitter for splitting the transmitted signal into transmitted signal components; a set of planar dielectric layers spaced apart and parallel to each other to provide a channel for agricultural material to flow above and below the set of planar dielectric layers, each dielectric planar member having an upper side and a lower side; an outer set of conductive patches on the outer sides of the set of planar dielectric layers, where transmit patches of the outer set of conductive patches are coupled to the transmitter via the signal splitter and where receive patches of the outer set of conductive patches are coupled to one or more receivers to receive a radio frequency fringing field associated with the transmitted signal of one or more adjacent corresponding transmit patches; a detector associated with one or more respective receivers for determining or estimating an attenuation or both the attenuation and a phase shift, of the radio frequency fringing field; and an electronic data processing unit configured to evaluate the estimated attenuation to estimate an amount, volume, mass, flow or yield of harvested agricultural material. a transmitter for providing a transmitted signal; a signal splitter for splitting the transmitted signal into transmitted signal components; a set of planar dielectric layers spaced apart and parallel to each other to provide a channel for agricultural material to flow above and below the set of planar dielectric layers, each dielectric planar member having an upper side and a lower side; an outer set of conductive patches on the outer sides of the set of planar dielectric layers, where transmit patches of the outer set of conductive patches are coupled to the transmitter via the signal splitter and where receive patches of the outer set of conductive patches are coupled to one or more receivers to receive a radio frequency fringing field associated with the transmitted signal of one or more adjacent corresponding transmit patches; a detector associated with one or more respective receivers for determining or estimating an attenuation or both the attenuation and a phase shift, of the radio frequency fringing field; and an electronic data processing unit configured to evaluate the estimated attenuation to estimate an amount, volume, mass, flow or yield of harvested agricultural material.
Camshaft adjuster for a camshaft device having an inner camshaft and having an outer camshaft arranged concentrically with respect to said inner camshaft, wherein the camshaft adjuster has at least one rotor, one stator and at least one compensating element for compensating axial and/or radial and/or angular tolerances, and the stator is rotationally conjointly connectable at least indirectly via a drive gear to the outer camshaft and the rotor is rotationally conjointly connectable to the inner camshaft, wherein the drive gear, as a component separate from the stator, is fastenable rotationally conjointly on the outer camshaft, and the stator is mountable rotatably on the inner camshaft, characterized in that multiple compensating elements are provided, which are preferably provided so as to be arranged in a uniformly distributed manner in a circumferential direction, wherein the compensating elements are designed to be rotationally rigid in the circumferential direction and are provided so as to be arranged and fastened between the stator and the drive gear axially spaced apart from the stator, wherein the compensating elements have in each case one central fastening portion which is provided for the fastening to the stator and which is adjoined, at each end side, by an outer fastening portion for the fastening to the drive gear.
A conveyor belt, comprising: a magnetic conveyor belt module comprising a module body extending in thickness from a first upper surface to a bottom surface, laterally from a first edge to a second edge, and longitudinally from a first end to a second end; a magnetic insert coupled to the module body, and a non-magnetic conveyor belt module connected to the magnetic conveyor belt module, characterized by the magnetic insert having a second upper surface that is above the first upper surface of the module body and by the non-magnetic conveyor belt module having a third upper surface that is non-magnetic and higher than the first upper surface and wherein the third upper surface is higher than the second upper surface. a magnetic conveyor belt module comprising a module body extending in thickness from a first upper surface to a bottom surface, laterally from a first edge to a second edge, and longitudinally from a first end to a second end; a magnetic insert coupled to the module body, and a module body extending in thickness from a first upper surface to a bottom surface, laterally from a first edge to a second edge, and longitudinally from a first end to a second end; a magnetic insert coupled to the module body, and a non-magnetic conveyor belt module connected to the magnetic conveyor belt module, characterized by the magnetic insert having a second upper surface that is above the first upper surface of the module body and by the non-magnetic conveyor belt module having a third upper surface that is non-magnetic and higher than the first upper surface and wherein the third upper surface is higher than the second upper surface.
A sampling device, comprising: a sampling bag comprising two flexible walls and an inner volume; two substantially rigid panels (11, 13); means for adhering the walls of the sampling bag to the panels wherein each flexible wall of the sampling bag has an outer surface area and each of the substantially rigid panels have a surface area larger than the outer surface area of the flexible wall such that the two substantially rigid panels can be biased together to reduce the inner volume to a volume of less than 5% of the fully inflated volume of the sampling bag; wherein the sampling bag further comprises an inlet port defined by one of the two flexible walls providing communication between an ambient fluid to be sampled and the internal sampling volume; and wherein the two substantially rigid panels comprise a top substantially rigid panel connected to one of the flexible walls on a first side of the sampling bag, and a bottom substantially rigid panel connected to the other of the flexible walls on a side opposite of the first side of the sampling bag, the panels comprising flaps, the flaps being configured to be folded to form a box around the sampling bag. a sampling bag comprising two flexible walls and an inner volume; two substantially rigid panels (11, 13); means for adhering the walls of the sampling bag to the panels wherein each flexible wall of the sampling bag has an outer surface area and each of the substantially rigid panels have a surface area larger than the outer surface area of the flexible wall such that the two substantially rigid panels can be biased together to reduce the inner volume to a volume of less than 5% of the fully inflated volume of the sampling bag; wherein the sampling bag further comprises an inlet port defined by one of the two flexible walls providing communication between an ambient fluid to be sampled and the internal sampling volume; and wherein the two substantially rigid panels comprise a top substantially rigid panel connected to one of the flexible walls on a first side of the sampling bag, and a bottom substantially rigid panel connected to the other of the flexible walls on a side opposite of the first side of the sampling bag, the panels comprising flaps, the flaps being configured to be folded to form a box around the sampling bag.
An auxiliary brake system for a chain driven device, the auxiliary brake system comprising: a fixed structure coupled to an endless loop, the fixed structure also coupled to a brake bar having a braking surface, the brake bar spaced apart from and biased towards the loop, a friction bar including a first side that engages the loop when placed onto the loop, the friction bar also including a second side, the friction bar spaced apart from the loop by an actuator, the actuator linked to a controller, the controller sending a signal to the actuator to place the first side of the friction bar onto a first section of the loop, wherein the second side of the friction bar engages the braking surface of the brake bar and brakes the loop. a fixed structure coupled to an endless loop, the fixed structure also coupled to a brake bar having a braking surface, the brake bar spaced apart from and biased towards the loop, a friction bar including a first side that engages the loop when placed onto the loop, the friction bar also including a second side, the friction bar spaced apart from the loop by an actuator, the actuator linked to a controller, the controller sending a signal to the actuator to place the first side of the friction bar onto a first section of the loop, wherein the second side of the friction bar engages the braking surface of the brake bar and brakes the loop.
Automatic dishwasher, in particular a domestic dishwasher, comprising a washing container that provides a washing chamber for receiving washware to be cleaned and a storage container for temporarily storing washing solution, the storage container being connected to the washing container in terms of flow, characterised by a signal transmitter which is designed to trigger if the automatic dishwasher is de-energised when the storage container is full, and an energy supply for the signal transmitter that is independent of the mains supply.
A catheter for delivering a prosthetic valve to a position within a patient, comprising: a catheter proximal portion ending in a catheter proximal end; a catheter distal portion ending in a catheter distal end, the catheter distal portion having an implant holding section configured to receive a prosthetic valve thereon; a catheter length from the catheter proximal end to the catheter distal end, wherein the catheter length is sufficient to reach from a position outside of a patient's body to a position within the patient's body; and at least one extendable positioner located at the catheter distal portion and configured to be selectively and radially extended from a first position to a second position, wherein in the first position the extendable positioner is positioned generally parallel to and against the catheter distal portion with the extendable positioner extending at least partially over the implant holding section, wherein in the second position at least a portion of the extendable positioner extends radially away from the catheter distal portion; characterized in that the extendable positioner comprises a positioner fixed end secured to the catheter distal portion and a positioner free end, wherein in the first position the positioner fixed end is secured to and adjacent the catheter distal portion while the positioner free end is radially adjacent the catheter distal portion, wherein in the second position the positioner fixed end is secured to and adjacent the catheter distal portion while the positioner free end is extended radially away from the catheter distal portion. a catheter proximal portion ending in a catheter proximal end; a catheter distal portion ending in a catheter distal end, the catheter distal portion having an implant holding section configured to receive a prosthetic valve thereon; a catheter length from the catheter proximal end to the catheter distal end, wherein the catheter length is sufficient to reach from a position outside of a patient's body to a position within the patient's body; and at least one extendable positioner located at the catheter distal portion and configured to be selectively and radially extended from a first position to a second position, wherein in the first position the extendable positioner is positioned generally parallel to and against the catheter distal portion with the extendable positioner extending at least partially over the implant holding section, wherein in the second position at least a portion of the extendable positioner extends radially away from the catheter distal portion; characterized in that the extendable positioner comprises a positioner fixed end secured to the catheter distal portion and a positioner free end, wherein in the first position the positioner fixed end is secured to and adjacent the catheter distal portion while the positioner free end is radially adjacent the catheter distal portion, wherein in the second position the positioner fixed end is secured to and adjacent the catheter distal portion while the positioner free end is extended radially away from the catheter distal portion.
A vent valve assembly comprising: a first housing component (20, 120, 220, 320, 420); a second housing component (22, 122, 222, 322, 422) secured to the first housing component; a third housing component (24, 124, 224, 324, 424); an inner cap joined to the second housing component at a sealed joint; a first valve (12, 112, 212, 312, 412); a second valve (14, 114, 214, 314, 414); characterized in that the third housing component secures to the first housing component such that the inner cap, the second housing component, the first valve and the second valve are surrounded by the first and third housing components; and wherein the first and the second housing components and the inner cap define a vapor flow path that directs vapor from the first valve to the second valve. a first housing component (20, 120, 220, 320, 420); a second housing component (22, 122, 222, 322, 422) secured to the first housing component; a third housing component (24, 124, 224, 324, 424); an inner cap joined to the second housing component at a sealed joint; a first valve (12, 112, 212, 312, 412); a second valve (14, 114, 214, 314, 414);