mhurhangee/ep-ind-claims huggingface dataset:
A load handling machine, comprising: - a wheeled chassis equipped with a driver station, - a system for handling a load and borne by the chassis, a control device for controlling the load-handling system, this control device, able to be actuated manually by an operator, comprising a manual part configured to be grasped in the hand, - an operating unit, the operating unit being configured to receive control signals from said control device, - an activation member for the manually actuatable control device, the operating unit being configured so as, when the activation member is in the actuated state, to allow the handling system to be operated as a function at least of the control signals received from the control device, the driver station being equipped with a detection system enabling detection of the presence or absence of the operator at said station, this detection system comprising at least one presence detector distinct from the control device, the operating unit being configured so as, when the activation member is in the non-actuated state after the activation member has passed from the actuated state to the non-actuated state, to prevent or allow at least the handling system to be operated using the control device at least as a function of the absent or present status of an operator, detected by the detection system for detecting the presence of the operator at said station, characterized in that the operating unit is configured to start at least one timer referred to as the presence timer defining a time interval when the activation member passes from the actuated state to the non-actuated state, and to prevent the handling system from being operated using the control signals supplied by the control device to the operating unit when the time interval defined by the presence timer has elapsed, and in that the operating unit is configured to reset the presence timer as a function of at least the absent or present status of the operator detected by the detection system for detecting the presence of the operator at said station. - a wheeled chassis equipped with a driver station, - a system for handling a load and borne by the chassis, a control device for controlling the load-handling system, this control device, able to be actuated manually by an operator, comprising a manual part configured to be grasped in the hand, - an operating unit, the operating unit being configured to receive control signals from said control device, - an activation member for the manually actuatable control device, the operating unit being configured so as, when the activation member is in the actuated state, to allow the handling system to be operated as a function at least of the control signals received from the control device,
A frozen aerated confection product comprising one or more proteins and a whey protein phospholipid concentrate wherein the amount of phospholipid in the whey protein phospholipid concentrate is at least 10% and wherein the product is free of any artificial or non-natural emulsifier and the product is free of stabilizer, and wherein the product further comprises a pH adjusting agent, and wherein the pH adjusting agent is Glucono-Delta-Lactone in an amount of 0.1 to 0.3 % by weight, wherein the product comprises the whey protein phospholipid concentrate in an amount of 0.1 to 10.0% by weight, wherein the product has an overrun of 100 to 130%, and wherein the product comprises from 0.5 to 16% fat by weight.
A display apparatus comprising: a front panel defining a front portion of the display apparatus; a frame fixed at a rear surface of the front panel to support the front panel; a display module for outputting an image, wherein the display module is fixed to the frame; and a rear housing receiving the display module and disposed at a rear of the front panel, characterized in that the rear housing covers the frame such that it is prevented from exposure to the outside of the rear housing, wherein a size of a front edge of the rear housing is configured to be the same or smaller than a size of the front panel such that the front edge of the rear housing cannot be seen from a front of the display apparatus, and wherein a portion of the rear surface of the front panel is exposed. a front panel defining a front portion of the display apparatus; a frame fixed at a rear surface of the front panel to support the front panel; a display module for outputting an image, wherein the display module is fixed to the frame; and a rear housing receiving the display module and disposed at a rear of the front panel, characterized in that the rear housing covers the frame such that it is prevented from exposure to the outside of the rear housing, wherein a size of a front edge of the rear housing is configured to be the same or smaller than a size of the front panel such that the front edge of the rear housing cannot be seen from a front of the display apparatus, and wherein a portion of the rear surface of the front panel is exposed.
An inkjet printer comprising: an inkjet head (5A, 5B) comprising at least one nozzle configured to eject ink; an image acquirer (51, 52) configured to acquire an image data of multi-bpp, the image data, once decoded, indicating a certain number of drops of the ink for each of pixels, and to output the acquired image data of multi-bpp via a communication line; and a head controller (53A, 53B) configured to convert the image data of multi-bpp received from the image acquirer via the communication line such that, in each pixel for which the number of drops of the ink indicated by the received image data of multi-bpp, once decoded, is one or more, the number of drops of the ink is incremented while a number of gradation steps of the received image data of multi-bpp is maintained, and to control drive of one nozzle of the inkjet head (5A, 5B) based on the converted image data such that a series of the number of drops of the ink based on the converted image data is ejected from the one nozzle, wherein each of the drops of the ink is substantially the same size. an inkjet head (5A, 5B) comprising at least one nozzle configured to eject ink; an image acquirer (51, 52) configured to acquire an image data of multi-bpp, the image data, once decoded, indicating a certain number of drops of the ink for each of pixels, and to output the acquired image data of multi-bpp via a communication line; and a head controller (53A, 53B) configured to convert the image data of multi-bpp received from the image acquirer via the communication line such that, in each pixel for which the number of drops of the ink indicated by the received image data of multi-bpp, once decoded, is one or more, the number of drops of the ink is incremented while a number of gradation steps of the received image data of multi-bpp is maintained, and to control drive of one nozzle of the inkjet head (5A, 5B) based on the converted image data such that a series of the number of drops of the ink based on the converted image data is ejected from the one nozzle, wherein each of the drops of the ink is substantially the same size.
A shelf assembly for installation in a household cooling appliance, comprising: a first shelf, a second shelf, which is separate from the first shelf, a carrier frame, at which the first shelf and the second shelf are arranged, wherein the carrier frame comprises a guiding, and at least one of the shelves (9, 13) can be shifted relative to the carrier frame and to the other shelf (9, 13) by the guiding, wherein the carrier frame comprises a first side bar, wherein the first side bar comprises a holding bracket for holding the shelf assembly at a household cooling appliance component and the first side bar comprises a channel-like housing, into which the holding bracket is introduced, characterized in that the housing comprises a first housing part and a second housing part separate from it, wherein the housing parts (33, 34) are connected by a connection, and wherein the connection is a snap-fit connection. a first shelf, a second shelf, which is separate from the first shelf, a carrier frame, at which the first shelf and the second shelf are arranged, wherein the carrier frame comprises a guiding, and at least one of the shelves (9, 13) can be shifted relative to the carrier frame and to the other shelf (9, 13) by the guiding, wherein the carrier frame comprises a first side bar, wherein the first side bar comprises a holding bracket for holding the shelf assembly at a household cooling appliance component and the first side bar comprises a channel-like housing, into which the holding bracket is introduced, characterized in that the housing comprises a first housing part and a second housing part separate from it, wherein the housing parts (33, 34) are connected by a connection, and wherein the connection is a snap-fit connection.
A method of obtaining data of a Radio Frequency Identification (RFID) tag (110-1, 110-2, 110-3, 110-4, 110-5) in a virtual read zone of a non-RFID enabled device, the method comprising: determining, by a processor, a location of the non-RFID enabled device; determining, by the processor, a virtual read zone of the non-RFID enabled device using at least the location of the non-RFID enabled device and a virtual interrogation signal strength of at least one fixed reader device (135-1, 135-2) identified as having an RFID read zone (140-1, 140-2) that at least partially includes the virtual read zone; reading data of the RFID tag using the at least one fixed reader device; and transmitting the data of the RFID tag from the at least one fixed reader device to the non-RFID enabled device. determining, by a processor, a location of the non-RFID enabled device; determining, by the processor, a virtual read zone of the non-RFID enabled device using at least the location of the non-RFID enabled device and a virtual interrogation signal strength of at least one fixed reader device (135-1, 135-2) identified as having an RFID read zone (140-1, 140-2) that at least partially includes the virtual read zone; reading data of the RFID tag using the at least one fixed reader device; and transmitting the data of the RFID tag from the at least one fixed reader device to the non-RFID enabled device.
Hearing aid device system (HG 1, HG 2, RCU) comprising at least a first and a second device which can be worn on the head or body of a user, with a radio link being provided for wireless signal transmission between the devices, characterised in that, as a loss protection system, an information signal from a first device of the hearing aid device system (HG 1, HG 2, RCU) which can be detected by the user is automatically generated if the radio link between the first device and a second device of the hearing aid device system (HG 1, HG 2, RCU) breaks or the signal level of a signal sent by the first device and received by the second device does not reach a threshold value at the site of the second device.
A method of monitoring purity of hydrogen gas comprising: transferring a quantity of a hydrogen gas mixture, comprising hydrogen gas and non-hydrogen gas, through an electrochemical hydrogen pump, wherein the electrochemical hydrogen pump includes an anode, a cathode, and an electrolyte membrane located between the anode and the cathode; separating a quantity of hydrogen gas from the hydrogen gas mixture by transferring the hydrogen gas from the anode, through the electrolyte membrane, to the cathode while preventing non-hydrogen gas from passing through the electrolyte membrane, including applying a voltage to operate the electrochemical hydrogen pump; collecting the hydrogen gas from the cathode, and removing a quantity of non-hydrogen gas from the anode; the method being characterized by: monitoring the time between purge of the anode and a specific level of voltage increase, the time being a function of or proportional to the quantity of pollutants in the hydrogen gas mixture; and wherein a controller stops delivery of hydrogen gas to a consumer if below a predetermined threshold of purity; and providing a warranty that the collected_hydrogen gas has a purity that is at least substantially equal to the predetermined threshold of purity. transferring a quantity of a hydrogen gas mixture, comprising hydrogen gas and non-hydrogen gas, through an electrochemical hydrogen pump, wherein the electrochemical hydrogen pump includes an anode, a cathode, and an electrolyte membrane located between the anode and the cathode; separating a quantity of hydrogen gas from the hydrogen gas mixture by transferring the hydrogen gas from the anode, through the electrolyte membrane, to the cathode while preventing non-hydrogen gas from passing through the electrolyte membrane, including applying a voltage to operate the electrochemical hydrogen pump; collecting the hydrogen gas from the cathode, and removing a quantity of non-hydrogen gas from the anode; the method being characterized by: monitoring the time between purge of the anode and a specific level of voltage increase, the time being a function of or proportional to the quantity of pollutants in the hydrogen gas mixture; and wherein a controller stops delivery of hydrogen gas to a consumer if below a predetermined threshold of purity; and providing a warranty that the collected_hydrogen gas has a purity that is at least substantially equal to the predetermined threshold of purity.
Electronic module comprising a carrier element and a circuit board, wherein the circuit board is attached in and/or to the carrier element via a plurality of connection sites, wherein the connection sites fill or close voids/gaps/undercuts between the carrier element and the circuit board, and wherein the connection sites are formed by means of a hardenable medium, and wherein the hardenable medium is circuit board lacquer. comprising a carrier element and a circuit board, wherein the circuit board is attached in and/or to the carrier element via a plurality of connection sites, wherein the connection sites fill or close voids/gaps/undercuts between the carrier element and the circuit board, and wherein the connection sites are formed by means of a hardenable medium, and wherein the hardenable medium is circuit board lacquer.
A detector element for a digital imaging system comprising: a semiconductor layer for absorbing photons; a first electrode (42; 48) located on a first side of the semiconductor layer; a second electrode (48; 42) located on a second side of the semiconductor layer, the first and second side on opposite sides of the semiconductor layer; wherein the first and second electrodes (42, 48) are staggered with respect to each other in a plane perpendicular to the semiconductor layer and do not overlap each other along a direction perpendicular to the first and second sides of the semiconductor layer, characterized by a blocking layer (46, 47) consisting of an insulating layer; wherein the blocking layer (46, 47) is disposed between the semiconductor layer and the first or second electrode (42, 48); wherein the blocking layer (46, 47) electrically isolates the first or the second electrode from the semiconducting layer. a semiconductor layer for absorbing photons; a first electrode (42; 48) located on a first side of the semiconductor layer; a second electrode (48; 42) located on a second side of the semiconductor layer, the first and second side on opposite sides of the semiconductor layer; wherein the first and second electrodes (42, 48) are staggered with respect to each other in a plane perpendicular to the semiconductor layer and do not overlap each other along a direction perpendicular to the first and second sides of the semiconductor layer, characterized by a blocking layer (46, 47) consisting of an insulating layer; wherein the blocking layer (46, 47) is disposed between the semiconductor layer and the first or second electrode (42, 48); wherein the blocking layer (46, 47) electrically isolates the first or the second electrode from the semiconducting layer.
Method for producing finely structured coated surfaces with an aspect ratio of at least 0.5 for influencing adhesion comprising the steps a) applying at least one coating compound on at least one substrate; b) forming a fine structure by means of a die, which has the negative of a fine structure, wherein b1) the die is pressed against the coating compound on the substrate or b2) the substrate from step a) contains the die; c) curing the resultant finely structured coating compound, obtaining a cured coating; d) separating the finely structured coating from the die, wherein steps d) and c) can also be carried out in the reverse order, and wherein - the coating compound, in the solvent-free state before application on the substrate, has a viscosity [rotary viscosimetry according to DIN 53018-1 with plate/cone geometry at 25°C; temperature control: Peltier; measuring device: HC 60/1 at a shear gradient D of 10-1000 l*s -1] below 10 Pas and - the cured coating has an elastic modulus [indentation with Berkovich tip, preload between 0.1 and 1 mN depending on the modulus of the test specimen; indentation time: 10 s; holding time 30 s and retraction time 10 s, calibration on polycarbonate] of at least 1 and up to 1000 MPa - the radiation-curing coating compound has a double bond density of not more than 7 mol/kg. a) applying at least one coating compound on at least one substrate; b) forming a fine structure by means of a die, which has the negative of a fine structure, wherein b1) the die is pressed against the coating compound on the substrate or b2) the substrate from step a) contains the die; b1) the die is pressed against the coating compound on the substrate or b2) the substrate from step a) contains the die; c) curing the resultant finely structured coating compound, obtaining a cured coating; d) separating the finely structured coating from the die, wherein steps d) and c) can also be carried out in the reverse order, and - the coating compound, in the solvent-free state before application on the substrate, has a viscosity [rotary viscosimetry according to DIN 53018-1 with plate/cone geometry at 25°C; temperature control: Peltier; measuring device: HC 60/1 at a shear gradient D of 10-1000 l*s -1] below 10 Pas and - the cured coating has an elastic modulus [indentation with Berkovich tip, preload between 0.1 and 1 mN depending on the modulus of the test specimen; indentation time: 10 s; holding time 30 s and retraction time 10 s, calibration on polycarbonate] of at least 1 and up to 1000 MPa - the radiation-curing coating compound has a double bond density of not more than 7 mol/kg.
A method for detecting concealed dangerous objects in microwave images, characterized by: obtaining at least two adjacent microwave images of the same dangerous object at different angles, each of which contains a body; obtaining a body-region image from each of the microwave images; obtaining an image of detected dangerous-object areas from each body-region image, and performing an edge extraction on each of the images of detected dangerous-object areas to obtain a first edge image of each of the microwave images; performing edge detection on each body-region image to obtain a second edge image of each of the microwave images; performing a first edge filtering operation on the first edge image and the second edge image to obtain dangerous-object edges of each of the microwave images; performing a registration operation and a second edge filtering operation on the dangerous-object edges of each of the microwave images to obtain a rough dangerous-object contour; performing a regional-binarization operation on the rough dangerous-object contour to obtain a first dangerous-object area; and filtering the first dangerous-object area to obtain a second dangerous-object area. obtaining at least two adjacent microwave images of the same dangerous object at different angles, each of which contains a body; obtaining a body-region image from each of the microwave images; obtaining an image of detected dangerous-object areas from each body-region image, and performing an edge extraction on each of the images of detected dangerous-object areas to obtain a first edge image of each of the microwave images; performing edge detection on each body-region image to obtain a second edge image of each of the microwave images; performing a first edge filtering operation on the first edge image and the second edge image to obtain dangerous-object edges of each of the microwave images; performing a registration operation and a second edge filtering operation on the dangerous-object edges of each of the microwave images to obtain a rough dangerous-object contour; performing a regional-binarization operation on the rough dangerous-object contour to obtain a first dangerous-object area; and filtering the first dangerous-object area to obtain a second dangerous-object area.
A method of fuel gauging for an aircraft, the method comprising: determining an attitude and an acceleration of a fuel tank; obtaining measured capacitances from physical probes within the fuel tank; determining a height of fuel in the fuel tank relative to each of the physical probes using the measured capacitances of the physical probes and the attitude of the fuel tank; estimating a height of fuel relative to each of a plurality of virtual probes based on the heights of fuel relative to the physical probes and the attitude of the fuel tank; and determining a total volume of fuel in the fuel tank using the heights of fuel relative to the physical probes, the heights of the fuel relative to the virtual probes, and the attitude of the fuel tank. determining an attitude and an acceleration of a fuel tank; obtaining measured capacitances from physical probes within the fuel tank; determining a height of fuel in the fuel tank relative to each of the physical probes using the measured capacitances of the physical probes and the attitude of the fuel tank; estimating a height of fuel relative to each of a plurality of virtual probes based on the heights of fuel relative to the physical probes and the attitude of the fuel tank; and determining a total volume of fuel in the fuel tank using the heights of fuel relative to the physical probes, the heights of the fuel relative to the virtual probes, and the attitude of the fuel tank.
A method of producing a pharmaceutical composition which is suitable as a passive immunoprophylactic against enterotoxigenic Escherichia coli, the method comprising the steps: a. administering to a milk producing domesticated non-human animal an immunogen composed of one or more Class five Escherichia coli fimbrial adhesions, each of the one or more fimbrial adhesins being linked at its C-terminus to a linker which is operatively linked at its C-terminus to an Escherichia coli major fimbrial subunit, wherein said linker is composed of an amino acid sequence selected from the group consisting of SEQ ID No. 10, SEQ ID No. 12, and SEQ ID No.13; and b. collecting anti-adhesin immunoglobulin containing colostrums or milk from said domesticated non-human animal. a. administering to a milk producing domesticated non-human animal an immunogen composed of one or more Class five Escherichia coli fimbrial adhesions, each of the one or more fimbrial adhesins being linked at its C-terminus to a linker which is operatively linked at its C-terminus to an Escherichia coli major fimbrial subunit, wherein said linker is composed of an amino acid sequence selected from the group consisting of SEQ ID No. 10, SEQ ID No. 12, and SEQ ID No.13; and b. collecting anti-adhesin immunoglobulin containing colostrums or milk from said domesticated non-human animal.