mhurhangee/patent-ind-claim-en huggingface dataset:
Modular support, comprising a support module (118; 118'), which comprises a base part and a head part that is height-adjustable relative to the base part , and an extension module (120; 120'), onto which the support module (118; 118') is able to be placed, wherein an anti-rotation device is provided, by means of which the extension module (120; 120') is securable relative to the support module (118; 118') in a predetermined angular position in relation to a longitudinal axis of the support , and wherein a screw connection is provided, by means of which the extension module (120; 120') is screwable to the support module (118; 118'), characterized in that the screw connection comprises an external thread and a union nut . a support module (118; 118'), which comprises a base part and a head part that is height-adjustable relative to the base part , and an extension module (120; 120'), onto which the support module (118; 118') is able to be placed, wherein an anti-rotation device is provided, by means of which the extension module (120; 120') is securable relative to the support module (118; 118') in a predetermined angular position in relation to a longitudinal axis of the support , and wherein a screw connection is provided, by means of which the extension module (120; 120') is screwable to the support module (118; 118'), characterized in that the screw connection comprises an external thread and a union nut .
A fuel injection device for a gas turbine, comprising - a plurality of streamlined bodies arranged in a ring adjacent to one another in a circumferential direction relative to a central axis of the fuel injection device, each streamlined body comprising a trailing edge and at least one streamlined body comprising a fuel nozzle on the trailing edge , - wherein the plurality of streamlined bodies is split into at least a first group of streamlined bodies (A, 30) and a second group of one or more streamlined bodies (B, 30), - all the streamlined bodies in the first group (A) being the same and being different from the one or more streamlined bodies in the second group (B), and all the streamlined bodies in the second group (B) being the same, - wherein the first group of streamlined bodies (A, 30) comprises at least two streamlined bodies adjacent to one another, and - wherein the streamlined bodies are arranged such that the fuel injection device has a two-fold or three-fold or four-fold rotational symmetry and a maximum of four-fold rotational symmetry in the plane perpendicular to the central axis; characterized in that the streamlined bodies of the first group have a right-handed lobe structure, and the streamlined bodies of the second group have a left-handed lobe structure. - a plurality of streamlined bodies arranged in a ring adjacent to one another in a circumferential direction relative to a central axis of the fuel injection device, each streamlined body comprising a trailing edge and at least one streamlined body comprising a fuel nozzle on the trailing edge , - wherein the plurality of streamlined bodies is split into at least a first group of streamlined bodies (A, 30) and a second group of one or more streamlined bodies (B, 30), - all the streamlined bodies in the first group (A) being the same and being different from the one or more streamlined bodies in the second group (B), and all the streamlined bodies in the second group (B) being the same, - wherein the first group of streamlined bodies (A, 30) comprises at least two streamlined bodies adjacent to one another, and - wherein the streamlined bodies are arranged such that the fuel injection device has a two-fold or three-fold or four-fold rotational symmetry and a maximum of four-fold rotational symmetry in the plane perpendicular to the central axis; characterized in that the streamlined bodies of the first group have a right-handed lobe structure, and the streamlined bodies of the second group have a left-handed lobe structure.
A pick-up press device for use in a process of producing a 3D molded product from a pulp slurry comprising: a pick-up press tool presenting a porous first product face, a press tool presenting a second product face, and a vacuum source, connected to the pick-up press tool , wherein the pick-up press tool and the press tool are vertically movable relative one another, wherein, in a first relative position of the press tools , at least one of the product faces is positioned so as to receive a pulp slurry layer in liquid form to its product face, and wherein in a second relative position of the press tools , the product faces are pressed towards each other for pressing the pulp slurry layer, characterized in that the device further comprises a first transfer tool , wherein the first transfer tool comprises: a first forming surface portion , configured to conform to a first portion of the porous first product face, such that a forming gap is defined there between, said forming gap defining a desired pulp slurry layer thickness, and a second forming surface portion , configured to diverge from a second portion of the porous first product face, such that a non-forming space is defined by the second forming surface portion and the second portion of the porous first product face, said non-forming space having a greater thickness than the forming gap. a pick-up press tool presenting a porous first product face, a press tool presenting a second product face, and a vacuum source, connected to the pick-up press tool , wherein the pick-up press tool and the press tool are vertically movable relative one another, wherein, in a first relative position of the press tools , at least one of the product faces is positioned so as to receive a pulp slurry layer in liquid form to its product face, and wherein in a second relative position of the press tools , the product faces are pressed towards each other for pressing the pulp slurry layer, characterized in that the device further comprises a first transfer tool , wherein the first transfer tool comprises: a first forming surface portion , configured to conform to a first portion of the porous first product face, such that a forming gap is defined there between, said forming gap defining a desired pulp slurry layer thickness, and a second forming surface portion , configured to diverge from a second portion of the porous first product face, such that a non-forming space is defined by the second forming surface portion and the second portion of the porous first product face, said non-forming space having a greater thickness than the forming gap. a first forming surface portion , configured to conform to a first portion of the porous first product face, such that a forming gap is defined there between, said forming gap defining a desired pulp slurry layer thickness, and a second forming surface portion , configured to diverge from a second portion of the porous first product face, such that a non-forming space is defined by the second forming surface portion and the second portion of the porous first product face, said non-forming space having a greater thickness than the forming gap.
A communication method performed by a terminal device, the method comprising: • receiving configuration information from a network device, wherein the configuration information is used to instruct the terminal device to report channel state information, CSI, for at least two groups of channel state information-reference signal, CSI-RS, resources (step 410), wherein each group of the at least two groups of CSI-RS resources comprises N subbands, and the subbands forming the N subbands are the same for each of the at least two groups of CSI-RS resources, wherein N is an integer greater than 1; • receiving CSI-RSs carried on the at least two groups of CSI-RS resources from the network device (step 420); and • reporting CSI based on a result of measuring the CSI-RSs carried on the at least two groups of CSI-RS resources (step 430), the reported CSI comprises CSI corresponding to a subband having best performance among those subbands among the N subbands meeting a target requirement, wherein the subbands meeting the target requirement are subbands whose block error rates are less than a preset block error rate threshold, and the subband having the best performance is a subband having a highest throughput, a largest modulation and coding scheme, MCS, or a largest CQI value among those subbands meeting the target requirement. • receiving configuration information from a network device, wherein the configuration information is used to instruct the terminal device to report channel state information, CSI, for at least two groups of channel state information-reference signal, CSI-RS, resources (step 410), wherein each group of the at least two groups of CSI-RS resources comprises N subbands, and the subbands forming the N subbands are the same for each of the at least two groups of CSI-RS resources, wherein N is an integer greater than 1; • receiving CSI-RSs carried on the at least two groups of CSI-RS resources from the network device (step 420); and • reporting CSI based on a result of measuring the CSI-RSs carried on the at least two groups of CSI-RS resources (step 430), the reported CSI comprises CSI corresponding to a subband having best performance among those subbands among the N subbands meeting a target requirement, wherein the subbands meeting the target requirement are subbands whose block error rates are less than a preset block error rate threshold, and the subband having the best performance is a subband having a highest throughput, a largest modulation and coding scheme, MCS, or a largest CQI value among those subbands meeting the target requirement.
A propulsion unit for a marine vessel intended to operate in icy waters, the propulsion unit comprising a pulling propeller which is rotatable about a propeller axis in a plane of rotation for the propeller and which is mounted on a hub that is rotatable together with the propeller , the propeller being arranged such that the pulling propeller can act on a block of ice in the water to cut the ice, even when the block of ice has an extension that exceeds the diameter of the propeller , wherein the hub is designed as a cutting element that is capable of cutting ice that encounters the hub , by means of having said hub extending in the direction of the propeller axis, beyond the plane of rotation of the propeller arranged to meet a wall of ice before the propeller meets the same wall of ice and wherein said hub is provided with elevated cutting members or has a polygonal cross section or at least one cut-out portion such that the surface of the hub becomes uneven.
An audio system including a channel for processing signals, the channel comprising: - a preceding processing module , - a following processing module being coupled to the preceding processing module for receiving an output signal from the preceding processing module , - a filter having an input for receiving a signal to be processed by the channel and having a filter output configured to provide the filtered signal to a first input , - a combiner having the first input for receiving the filtered signal from the filter output of the filter, the filtered signal to be processed by the channel , a second input for receiving a reference signal , wherein the reference signal is a sine wave of a predetermined frequency, and the combiner having an output coupled to an input of the preceding processing module , and - a processing unit for receiving the output signal , wherein the processing unit is configured for generating a correction signal in response to a modification of an estimate of an amplitude of the reference signal in the output signal and wherein the following processing module is configured for changing a processing of the following processing module in response to the correction signal , and characterised in that the filter is a notch filter and is configured for attenuating frequency components that are an integer multiple of the predetermined frequency. - a preceding processing module , - a following processing module being coupled to the preceding processing module for receiving an output signal from the preceding processing module , - a filter having an input for receiving a signal to be processed by the channel and having a filter output configured to provide the filtered signal to a first input , - a combiner having the first input for receiving the filtered signal from the filter output of the filter, the filtered signal to be processed by the channel , a second input for receiving a reference signal , wherein the reference signal is a sine wave of a predetermined frequency, and the combiner having an output coupled to an input of the preceding processing module , and - a processing unit for receiving the output signal , wherein the processing unit is configured for generating a correction signal in response to a modification of an estimate of an amplitude of the reference signal in the output signal and wherein the following processing module is configured for changing a processing of the following processing module in response to the correction signal , and
A probe head of an air data probe comprising: an insert including: a first end ; a second end opposite the first end; and a body portion extending between the first end and the second end, the body portion including a groove ; a portion of a heater within the groove; an outer shell surrounding the insert and the portion of the heater, the outer shell including: a tip portion defining a first end of the outer shell; and a body portion extending from the tip portion defining a second end of the outer shell; a braze between the insert and the second end of the outer shell adjacent the second end of the insert; wherein the portion of the heater is hermetically sealed between the insert and the outer shell, and characterized in that the probe head comprises a tip weld between the outer shell and the first end of the insert; wherein the tip portion of the outer shell makes up a tip of the probe head and wherein the tip weld is between an interior surface of the outer shell at the tip portion and the first end of the insert. an insert including: a first end ; a second end opposite the first end; and a body portion extending between the first end and the second end, the body portion including a groove ; a first end ; a second end opposite the first end; and a body portion extending between the first end and the second end, the body portion including a groove ; a portion of a heater within the groove; an outer shell surrounding the insert and the portion of the heater, the outer shell including: a tip portion defining a first end of the outer shell; and a body portion extending from the tip portion defining a second end of the outer shell; a tip portion defining a first end of the outer shell; and a body portion extending from the tip portion defining a second end of the outer shell; a braze between the insert and the second end of the outer shell adjacent the second end of the insert; wherein the portion of the heater is hermetically sealed between the insert and the outer shell, and characterized in that the probe head comprises a tip weld between the outer shell and the first end of the insert; wherein the tip portion of the outer shell makes up a tip of the probe head and wherein the tip weld is between an interior surface of the outer shell at the tip portion and the first end of the insert.
A production method of an edible sustained-release functional material, the production method: preparing an emulsified raw material by emulsifying fat and oil containing a hydrophobic functional ingredient; stirring and mixing the emulsified raw material, gelatin, transglutaminase, and dextrin having a DE value of 8 to 21; then forming a gel by leaving the mixture to rest; and after freeze-drying the gel, performing pulverization for powderization.
A lighting apparatus comprising: a first light emitting element a first phosphor disposed in such a position that light (L B1 ) emitted by the first light emitting element is incident on the first phosphor, the first phosphor being excited by the light, and a color filter covering the entire emission surface of the lighting apparatus and transmitting a part of the first light (L G ) emitted from the first phosphor , wherein the lighting apparatus emits the light (L W ) transmitted through the color filter , characterized in that said first light emitting element has an emission peak wavelength of 400 nm or more and 510 nm or less said first phosphor has an emission peak having a wavelength of 485 nm or more and 700 nm or less, said color filter is red, has a transmittance for light with a wavelength of 600 nm or more and 730 nm or less that is 80% or more and a transmittance for light with a wavelength of 410 nm or more and 480 nm or less that is 3% or more and 50% or less, wherein said light (L W ) after being transmitted through the color filter is white. a first light emitting element a first phosphor disposed in such a position that light (L B1 ) emitted by the first light emitting element is incident on the first phosphor, the first phosphor being excited by the light, and a color filter covering the entire emission surface of the lighting apparatus and transmitting a part of the first light (L G ) emitted from the first phosphor , wherein the lighting apparatus emits the light (L W ) transmitted through the color filter , said first light emitting element has an emission peak wavelength of 400 nm or more and 510 nm or less said first phosphor has an emission peak having a wavelength of 485 nm or more and 700 nm or less, said color filter is red, has a transmittance for light with a wavelength of 600 nm or more and 730 nm or less that is 80% or more and a transmittance for light with a wavelength of 410 nm or more and 480 nm or less that is 3% or more and 50% or less, wherein said light (L W ) after being transmitted through the color filter is white.
Method for packaging foam cans comprising: - supplying foam cans , - counting a predetermined number of foam cans , - packing the foam cans in a folding box , wherein the folding box is folded up and glued shut, wherein the predetermined number of foam cans are placed in a packaging position on a folding table , which extends in a longitudinal direction, the folding table being slidable in the longitudinal direction, and wherein a folding box comprises four side walls, each side wall being provided with a flap at a top and bottom, wherein the folding box is placed with the help of a robotic arm, with an open bottom over the foam cans in the packaging position, after which the flaps at the top and bottom are folded shut. - supplying foam cans , - counting a predetermined number of foam cans , - packing the foam cans in a folding box , wherein the folding box is folded up and glued shut,
A method for receiving uplink control information, UCI, in a wireless communication system, the method performed by a base station , and comprising: transmitting a value of a scaling factor through a radio resource control, RRC, signal to a user equipment, UE ; and receiving the UCI on a physical uplink shared channel, PUSCH, from the UE , wherein the number of coded symbols for the UCI is determined based on the minimum between (i) a first value which is determined based on a payload size of the UCI multiplied by an offset value related to a coding rate, and (ii) a second value which is determined based on the scaling factor multiplied by a total amount of resource elements allocated for the PUSCH receiving the UCI. transmitting a value of a scaling factor through a radio resource control, RRC, signal to a user equipment, UE ; and receiving the UCI on a physical uplink shared channel, PUSCH, from the UE , wherein the number of coded symbols for the UCI is determined based on the minimum between (i) a first value which is determined based on a payload size of the UCI multiplied by an offset value related to a coding rate, and (ii) a second value which is determined based on the scaling factor multiplied by a total amount of resource elements allocated for the PUSCH receiving the UCI.
Four-point link for a vehicle, comprising a core element and a main laminate which is composed of a fibre/plastic composite material, wherein - the main laminate winds around the core element , - the core element comprises four load introducing elements and a foam core , - the four load introducing elements are connected in a form-fitting manner to the foam core , characterized in that the four-point link has four additional windings composed of a fibre/plastic composite material, wherein - a first additional winding winds around a first load introducing element and operatively connects said first load introducing element to the main laminate , - a second additional winding winds around a second load introducing element and operatively connects said second load introducing element to the main laminate , - a third additional winding winds around a third load introducing element and operatively connects said third load introducing element to the main laminate , - a fourth additional winding winds around a fourth load introducing element and operatively connects said fourth load introducing element to the main laminate , and wherein compressive forces can be introduced into the main laminate by means of each additional winding . - the main laminate winds around the core element , - the core element comprises four load introducing elements and a foam core , - the four load introducing elements are connected in a form-fitting manner to the foam core , characterized in that the four-point link has four additional windings composed of a fibre/plastic composite material, wherein - a first additional winding winds around a first load introducing element and operatively connects said first load introducing element to the main laminate , - a second additional winding winds around a second load introducing element and operatively connects said second load introducing element to the main laminate , - a third additional winding winds around a third load introducing element and operatively connects said third load introducing element to the main laminate , - a fourth additional winding winds around a fourth load introducing element and operatively connects said fourth load introducing element to the main laminate ,