mhurhangee/patent-ind-claim-en huggingface dataset:
Waste collection vehicle comprising a waste collection body with a waste collection container for receiving waste, a loading opening for filling with waste, a compactor unit for conveying the filled waste from a loading trough into the waste collection container and for compacting the waste, and the loading trough for collecting the waste filled via the loading opening , wherein the loading trough is designed as a wear component on the vehicle side for co-operating with the compactor unit for the waste collection vehicle and which provides connecting means for detachably attaching the wear component, i.e. the loading trough , in the waste collection vehicle ,wherein the connecting means are designed to correspond with further connecting means of the waste collection vehicle and form a frictional and/or form fit connection, and characterized in that the loading trough extends between two laterally delimiting side parts of the waste collection body and the side parts comprise the further connecting means . a waste collection container for receiving waste, a loading opening for filling with waste, a compactor unit for conveying the filled waste from a loading trough into the waste collection container and for compacting the waste, and the loading trough for collecting the waste filled via the loading opening , wherein the loading trough is designed as a wear component on the vehicle side for co-operating with the compactor unit for the waste collection vehicle and which provides connecting means for detachably attaching the wear component, i.e. the loading trough , in the waste collection vehicle ,wherein the connecting means are designed to correspond with further connecting means of the waste collection vehicle and form a frictional and/or form fit connection, and characterized in that the loading trough extends between two laterally delimiting side parts of the waste collection body and the side parts comprise the further connecting means .
A flexible high pressure fluid cleaning lance positioning and drive apparatus comprising: a guide rail having a longitudinal axis; a tractor drive module mounted on the guide rail for movement along the guide rail ; and a high pressure fluid hose drive module connected to the tractor drive module on the guide rail operable to propel a flexible high pressure lance hose along an axis parallel to the guide rail longitudinal axis; and an angle guide rotator module mounted on the guide rail and connected to the tractor drive module for adjustably positioning an angle guide tube in registry with an object to be cleaned and guiding the flexible lance hose though the angle guide tube to the object to be cleaned, characterised in that , the tractor drive module is connected to the hose drive module by a conduit for carrying the high pressure lance hose . a guide rail having a longitudinal axis; a tractor drive module mounted on the guide rail for movement along the guide rail ; and a high pressure fluid hose drive module connected to the tractor drive module on the guide rail operable to propel a flexible high pressure lance hose along an axis parallel to the guide rail longitudinal axis; and an angle guide rotator module mounted on the guide rail and connected to the tractor drive module for adjustably positioning an angle guide tube in registry with an object to be cleaned and guiding the flexible lance hose though the angle guide tube to the object to be cleaned, characterised in that , the tractor drive module is connected to the hose drive module by a conduit for carrying the high pressure lance hose .
A portable liquid-filtration device, comprising: an inlet port for receiving the unfiltered fluid; a filtering portion comprising a filtering medium in the form of a hollow fiber membrane module and fluidly coupled to the inlet port; a filtered-liquid output port for dispensing the filtered fluid, the output port fluidly coupled to the filtering portion; a flush port fluidly coupled to the filtering portion, the flush port for discharging the flush fluid containing the particulate matter that did not permeate through the hollow fiber membrane; and a manually activated pump assembly fluidly coupled to the inlet port, filtering portion, output port and flush port, the pump assembly configured, when activated, to create a negative fluid pressure at the inlet port and a positive fluid pressure at the output port and the flush port; and a flow-regulation valve fluidly coupled to the filtering portion and the flush port, the flow-regulation valve having an orifice configured to decrease in diameter in response to an increase in pressure in fibers of the hollow fiber membrane module, wherein, as a consequence of activation of the pump assembly, the filtering portion receives unfiltered liquid from the inlet port, the output port receives from the filtering portion only liquid traversing the filtering medium in a first direction, and the flush port receives from the filtering portion liquid traversing the filtering medium in a second direction different from the first direction. an inlet port for receiving the unfiltered fluid; a filtering portion comprising a filtering medium in the form of a hollow fiber membrane module and fluidly coupled to the inlet port; a filtered-liquid output port for dispensing the filtered fluid, the output port fluidly coupled to the filtering portion; a flush port fluidly coupled to the filtering portion, the flush port for discharging the flush fluid containing the particulate matter that did not permeate through the hollow fiber membrane; and a manually activated pump assembly fluidly coupled to the inlet port, filtering portion, output port and flush port, the pump assembly configured, when activated, to create a negative fluid pressure at the inlet port and a positive fluid pressure at the output port and the flush port; and a flow-regulation valve fluidly coupled to the filtering portion and the flush port, the flow-regulation valve having an orifice configured to decrease in diameter in response to an increase in pressure in fibers of the hollow fiber membrane module, wherein, as a consequence of activation of the pump assembly, the filtering portion receives unfiltered liquid from the inlet port, the output port receives from the filtering portion only liquid traversing the filtering medium in a first direction, and the flush port receives from the filtering portion liquid traversing the filtering medium in a second direction different from the first direction.
An electronic device comprising: a front face, a side face and a back face,; a bended display including a front display region covering at least partially the front face, a side display region covering at least partially the side face, and a back display region covering at least partially the back face,; a sensor unit configured to detect a motion of the electronic device; and a processor configured to: if an event occurs while content is displayed on the front display region , control the bended display to display a graphic object corresponding to the event on the front display region; and control the bended display to display a first screen corresponding to the graphic object on the back display region , based on the detected motion of the electronic device, characterised in that the processor is further configured to, when determining that the front display region is facing the user, display on the side display region a part of content displayed on the back display region , and when determining that the back display region is facing the user, display on the side display region a part of content displayed on the front display region . a front face, a side face and a back face,; a bended display including a front display region covering at least partially the front face, a side display region covering at least partially the side face, and a back display region covering at least partially the back face,; a sensor unit configured to detect a motion of the electronic device; and a processor configured to: if an event occurs while content is displayed on the front display region , control the bended display to display a graphic object corresponding to the event on the front display region; and control the bended display to display a first screen corresponding to the graphic object on the back display region , based on the detected motion of the electronic device, if an event occurs while content is displayed on the front display region , control the bended display to display a graphic object corresponding to the event on the front display region; and control the bended display to display a first screen corresponding to the graphic object on the back display region , based on the detected motion of the electronic device, characterised in that the processor is further configured to, when determining that the front display region is facing the user, display on the side display region a part of content displayed on the back display region , and when determining that the back display region is facing the user, display on the side display region a part of content displayed on the front display region .
A method for providing network connectivity to a remote device via aircrafts , comprising: routing data to and from a network via a first uplink device on a first aircraft ; routing data to and from the remote device via a first downlink and a first downlink device on the first aircraft at a specific segment along a route of the first aircraft; following determining that the first downlink with the remote device is about to be lost and determining a nearby second aircraft , establishing , by the first aircraft , a handoff connection between the first aircraft and the second aircraft , and sending, by the first aircraft , downlink information related to the first downlink to the second aircraft ; establishing a second downlink between the remote device and a second downlink device of the second aircraft , the second aircraft comprising a second uplink device to connect the network ; and migrating the routing of data to and from the remote device to the second downlink device and the second uplink device on the second aircraft from the first downlink device via the handoff connection . routing data to and from a network via a first uplink device on a first aircraft ; routing data to and from the remote device via a first downlink and a first downlink device on the first aircraft at a specific segment along a route of the first aircraft; following determining that the first downlink with the remote device is about to be lost and determining a nearby second aircraft , establishing , by the first aircraft , a handoff connection between the first aircraft and the second aircraft , and sending, by the first aircraft , downlink information related to the first downlink to the second aircraft ; establishing a second downlink between the remote device and a second downlink device of the second aircraft , the second aircraft comprising a second uplink device to connect the network ; and migrating the routing of data to and from the remote device to the second downlink device and the second uplink device on the second aircraft from the first downlink device via the handoff connection .
A cooking device , comprising: a cooking chamber ; a food support for supporting the food to be cooked, for mounting in the cooking chamber; a heating device for heating the cooking chamber; a sensing arrangement comprising a cooking chamber temperature sensor ; an output device; and a controller adapted to: generate a first estimate of the required cooking time for a given food item to be cooked, after a first time period from the turning on of the heating device, wherein the first estimate is based only on the time-evolution of the cooking chamber temperature and a power of the heating device ; generate a second estimate of the required cooking time for the given food item to be cooked by a continuous cooking cycle, after a second time period longer than the first time period, wherein the second estimate is again based only on the time-evolution of the cooking chamber temperature and a power of the heating device ; and control the output device to present the first and then second estimate to a user. a cooking chamber ; a food support for supporting the food to be cooked, for mounting in the cooking chamber; a heating device for heating the cooking chamber; a sensing arrangement comprising a cooking chamber temperature sensor ; an output device; and a controller adapted to: generate a first estimate of the required cooking time for a given food item to be cooked, after a first time period from the turning on of the heating device, wherein the first estimate is based only on the time-evolution of the cooking chamber temperature and a power of the heating device ; generate a second estimate of the required cooking time for the given food item to be cooked by a continuous cooking cycle, after a second time period longer than the first time period, wherein the second estimate is again based only on the time-evolution of the cooking chamber temperature and a power of the heating device ; and control the output device to present the first and then second estimate to a user. generate a first estimate of the required cooking time for a given food item to be cooked, after a first time period from the turning on of the heating device, wherein the first estimate is based only on the time-evolution of the cooking chamber temperature and a power of the heating device ; generate a second estimate of the required cooking time for the given food item to be cooked by a continuous cooking cycle, after a second time period longer than the first time period, wherein the second estimate is again based only on the time-evolution of the cooking chamber temperature and a power of the heating device ; and control the output device to present the first and then second estimate to a user.
A composition comprising: (a) a multiplicity of V-segment primers, wherein each V-segment primer comprises a sequence that is complementary to a single functional Vβ-segment or a small family of Vβ-segments, and wherein there is a V-segment primer for each Vβ-segment; (b) a multiplicity of J-segment primers, wherein each J-segment primer comprises a sequence that is complementary to a Jβ-segment, wherein there is a J-segment primer for each Jβ-segment, and wherein the V-segment and J-segment primers permit amplification of a TCRβ CDR3 region by a multiplex polymerase chain reaction (PCR) to produce a multiplicity of amplified DNA molecules sufficient to quantify the diversity of the TCRβ genes, wherein each amplified DNA molecule of the multiplicity of amplified DNA molecules spans a V-D-J junction and comprises an amplified Jβ gene segment, and wherein each amplified Jβ gene segment comprises a unique four base tag at positions +11 through +14 downstream of the recombination signal sequence (RSS) site; and (c) a set of sequencing oligonucleotides, wherein the sequencing oligonucleotides hybridize downstream of and adjacent to the unique four base tag within the amplified Jβ gene segments. (a) a multiplicity of V-segment primers, wherein each V-segment primer comprises a sequence that is complementary to a single functional Vβ-segment or a small family of Vβ-segments, and wherein there is a V-segment primer for each Vβ-segment; (b) a multiplicity of J-segment primers, wherein each J-segment primer comprises a sequence that is complementary to a Jβ-segment, wherein there is a J-segment primer for each Jβ-segment, and wherein the V-segment and J-segment primers permit amplification of a TCRβ CDR3 region by a multiplex polymerase chain reaction (PCR) to produce a multiplicity of amplified DNA molecules sufficient to quantify the diversity of the TCRβ genes, wherein each amplified DNA molecule of the multiplicity of amplified DNA molecules spans a V-D-J junction and comprises an amplified Jβ gene segment, and wherein each amplified Jβ gene segment comprises a unique four base tag at positions +11 through +14 downstream of the recombination signal sequence (RSS) site; and (c) a set of sequencing oligonucleotides, wherein the sequencing oligonucleotides hybridize downstream of and adjacent to the unique four base tag within the amplified Jβ gene segments.
A positive electrode active material, satisfying a chemical formula Li 1+ x (Ni a Co b Mn c ) 1- d M d O 2- y A y , wherein M is one or more selected from Zr, Sr, B, Ti, Mg, Sn and Al, A is one or more selected from S, N, F, Cl, Br and I, -0.01 ≤ x ≤ 0.2, 0.12 ≤ b / c ≤ 0.9, 0.002 ≤ b × c / a 2 ≤ 0.23, a + b + c = 1, 0 ≤ d ≤ 0.1, and 0 ≤ y < 0.2; and an interval particle size distribution curve of the positive electrode active material has a full width at half maximum D FW of from 4 μm to 8 μm.
Dispensing device for liquid fuel , comprising a container for the fuel , a dispenser arranged elevated with respect to the container and a pipeline connecting the container with the dispenser and having a shutoff valve on the dispenser side and a gas sensor arranged on the container side of the shutoff valve for checking the pipeline on its dispenser side for gas occurrence inside, characterised in that the pipeline has no further shutoff valve (8', 8").
A floor nozzle for a vacuum cleaner comprising a housing and a sliding base arranged on the underside of the housing, wherein a suction mouth , which runs in a transverse direction (y) and which is limited by a front suction mouth edge in a working direction (x) and by a rear suction mouth edge in the working direction (x), is formed in the sliding base, characterized in that the sliding base has a front cylinder jacket portion in front of the front suction mouth edge and a rear cylinder jacket portion behind the rear suction mouth edge , and that the front cylinder jacket portion is arranged within a first radius (r 1 ) and the rear cylinder jacket portion is arranged within a second radius (r 2 ) about a common axis of symmetry , which runs in the transverse direction (y).
A method for manufacturing an optoelectronic module comprising a support and an additional layer located on the support , the support consisting of an assembly without any optoelectronic properties, the assembly successively comprising a metal substrate , a dielectric coating located on the metal substrate , and an electrically conductive layer located on the dielectric coating , the manufacturing method including at least, in this order: - a step for providing the support , the support for example being running, and for applying a method for controlling the support , or a step for providing the support , the support having been subject to the control method, and - a step for depositing at least the additional layer on the electrically conductive layer of the support for obtaining the optoelectronic module , the control method for the support including at least the following steps: - an electric excitation of the support by putting into electric contact the metal substrate and the electrically conductive layer with a voltage source , and - a photothermal examination of the excited support for detecting a possible defect located at least partly in the dielectric coating and providing a photothermal examination result. - a step for providing the support , the support for example being running, and for applying a method for controlling the support , or a step for providing the support , the support having been subject to the control method, and - a step for depositing at least the additional layer on the electrically conductive layer of the support for obtaining the optoelectronic module , - an electric excitation of the support by putting into electric contact the metal substrate and the electrically conductive layer with a voltage source , and - a photothermal examination of the excited support for detecting a possible defect located at least partly in the dielectric coating and providing a photothermal examination result.
Method for operating a lamp system , comprising a gas discharge lamp , an electronic ballast , a temperature control element with controllable temperature control capacity and with a control unit for controlling a power-influencing controlled variable of the lamp system , characterized in that a light intensity control is provided, comprising the following steps: (i) measuring, by means of a light sensor , an actual value of a light intensity emitted by the gas discharge lamp ; and (ii) using the emitted light intensity as a controlled variable, characterized in that a target value for a manipulated variable is determined by means of extreme value control, wherein the light intensity is a maximum (UV max ) or a predetermined threshold value (UV duration ), wherein an operating temperature of the gas discharge lamp influencing the light intensity can be changed by means of the temperature control element , and the temperature control capacity is used as the manipulated variable of the control. (i) measuring, by means of a light sensor , an actual value of a light intensity emitted by the gas discharge lamp ; and (ii) using the emitted light intensity as a controlled variable, characterized in that a target value for a manipulated variable is determined by means of extreme value control, wherein the light intensity is a maximum (UV max ) or a predetermined threshold value (UV duration ), wherein an operating temperature of the gas discharge lamp influencing the light intensity can be changed by means of the temperature control element , and the temperature control capacity is used as the manipulated variable of the control.
A lighting device comprising: a plurality of groups of light-emitting elements (LEEs) (120; 1201-1205; 60-64; 1031-1039), each of the groups of LEEs (120; 1201-1205; 60-64; 1031-1039) comprising one or more LEEs and configured to provide a combined nominal light output when energized under nominal operating conditions, wherein the groups of LEEs are independently energizable; and a controller operatively connected to the groups of LEEs (120; 1201-1205; 60-64; 1031-1039) and configured to determine a binary dimming code based on a dimming signal , the binary dimming code having a plurality of bits, each of the groups of LEEs (120; 1201-1205; 60-64; 1031-1039) is associated with a respective bit of the dimming code , the controller further configured to energize each of the groups of LEEs (120; 1201-1205; 60-64; 1031-1039) based on a bit value of the respective bit of the dimming code , characterized in that different ones of the groups of LEEs (120; 1201-1205; 60-64; 1031-1039) include different numbers of LEEs, wherein the numbers of LEEs per group are based on a predetermined dimming function. a plurality of groups of light-emitting elements (LEEs) (120; 1201-1205; 60-64; 1031-1039), each of the groups of LEEs (120; 1201-1205; 60-64; 1031-1039) comprising one or more LEEs and configured to provide a combined nominal light output when energized under nominal operating conditions, wherein the groups of LEEs are independently energizable; and a controller operatively connected to the groups of LEEs (120; 1201-1205; 60-64; 1031-1039) and configured to determine a binary dimming code based on a dimming signal , the binary dimming code having a plurality of bits, each of the groups of LEEs (120; 1201-1205; 60-64; 1031-1039) is associated with a respective bit of the dimming code , the controller further configured to energize each of the groups of LEEs (120; 1201-1205; 60-64; 1031-1039) based on a bit value of the respective bit of the dimming code , characterized in that different ones of the groups of LEEs (120; 1201-1205; 60-64; 1031-1039) include different numbers of LEEs, wherein the numbers of LEEs per group are based on a predetermined dimming function.