mhurhangee/patent-ind-claim-en huggingface dataset:
An article of footwear , comprising: a support member comprising a bladder with an outer chamber and inner chamber , wherein the outer chamber is sealed from the inner chamber ; a first fluid in the form of a gas or liquid being sealed within the outer chamber , between an exterior bladder wall and an interior bladder wall , and the inner chamber being filled with a rheological fluid ; a reservoir in fluid communication with the inner chamber ; and an electromagnetic device associated with the support member , wherein the electromagnetic device is configured to be activated to vary the viscosity of the rheological fluid in the inner chamber , wherein the support member includes an upper bladder wall and a lower bladder wall that are joined to the outer chamber , and the upper bladder wall , the lower bladder wall and the outer chamber bound the inner chamber , and the lower bladder wall includes a fluid port , and a fluid line facilitates fluid communication between fluid port and the reservoir . a support member comprising a bladder with an outer chamber and inner chamber , wherein the outer chamber is sealed from the inner chamber ; a first fluid in the form of a gas or liquid being sealed within the outer chamber , between an exterior bladder wall and an interior bladder wall , and the inner chamber being filled with a rheological fluid ; a reservoir in fluid communication with the inner chamber ; and an electromagnetic device associated with the support member , wherein the electromagnetic device is configured to be activated to vary the viscosity of the rheological fluid in the inner chamber , wherein the support member includes an upper bladder wall and a lower bladder wall that are joined to the outer chamber , and the upper bladder wall , the lower bladder wall and the outer chamber bound the inner chamber , and the lower bladder wall includes a fluid port , and a fluid line facilitates fluid communication between fluid port and the reservoir .
Backpack-type carrier for the transportation of loads on the back of a person, comprising a load-carrying carrier frame as well as straps that can be applied to the shoulders, wherein swivel-mounted onto the carrier frame in its placing down area on the ground is at least one bracket, wherein the bracket is can be swivelled about a horizontal axis so that at the end of the swivel movement it is in a position below the carrier, wherein the bracket can be swivelled onto a ground and is fixable, characterised in that the bracket is configured as a closed bracket and a frame section is swivel-mounted on the carrier frame .
A method for wireless communications, the method being performed by a user equipment, UE , and the method comprising: determining an uplink, UL, channel raster for an uplink, UL, channel of a first wireless communications system; determining to shift, with respect to the uplink, UL, channel raster, an uplink, UL, transmission over the uplink, UL, channel by an offset in frequency, wherein the shift of the uplink, UL, transmission is based at least in part on tones of uplink, UL, carriers of the first wireless communications system not being aligned with tones of uplink, UL, carriers of a second wireless communications system, wherein the second wireless communications system is a legacy wireless communications system compared to the first wireless communications system; and transmitting the shifted uplink, UL, transmission, wherein the shifted uplink, UL, transmission aligns in frequency with a second uplink, UL, channel of the second wireless communications system. determining an uplink, UL, channel raster for an uplink, UL, channel of a first wireless communications system; determining to shift, with respect to the uplink, UL, channel raster, an uplink, UL, transmission over the uplink, UL, channel by an offset in frequency, wherein the shift of the uplink, UL, transmission is based at least in part on tones of uplink, UL, carriers of the first wireless communications system not being aligned with tones of uplink, UL, carriers of a second wireless communications system, wherein the second wireless communications system is a legacy wireless communications system compared to the first wireless communications system; and transmitting the shifted uplink, UL, transmission, wherein the shifted uplink, UL, transmission aligns in frequency with a second uplink, UL, channel of the second wireless communications system.
An air conditioner comprising: an irradiation unit configured to irradiate an irradiation area of an indoor unit of the air conditioner with ultraviolet rays; a temperature detection unit (T); and a control unit , characterized in that the temperature detection unit (T) is configured to detect an ambient temperature of the irradiation unit ; wherein the control unit is configured to control an irradiation time of the irradiation unit ; wherein the irradiation time is controlled by the control unit in accordance with the ambient temperature detected by the temperature detection unit (T); and wherein the control unit is further configured to control the irradiation unit to make the irradiation time longer as the ambient temperature becomes higher and to make the irradiation time shorter as the ambient temperature becomes lower. an irradiation unit configured to irradiate an irradiation area of an indoor unit of the air conditioner with ultraviolet rays; a temperature detection unit (T); and a control unit , characterized in that the temperature detection unit (T) is configured to detect an ambient temperature of the irradiation unit ; wherein the control unit is configured to control an irradiation time of the irradiation unit ; wherein the irradiation time is controlled by the control unit in accordance with the ambient temperature detected by the temperature detection unit (T); and wherein the control unit is further configured to control the irradiation unit to make the irradiation time longer as the ambient temperature becomes higher and to make the irradiation time shorter as the ambient temperature becomes lower.
A method for calibration in an agricultural harvesting machine , wherein the harvesting machine has a container for accommodating crop , a fill level sensor assembly for the detection of an upper fill level and a lower fill level in the container , a transport assembly for conveying a flow of crop associated with the container and a crop flow sensor assembly for measuring a volume of the crop flow, wherein the crop flow sensor assembly is calibrated on the basis of the detection of the upper fill level and of the lower fill level , characterized in that the container has a linear fill level region and a non-linear fill level region , wherein in the linear fill level region , the fill level volume varies linearly with a fill level height and wherein in the non-linear fill level region , the fill level volume varies non-linearly with the fill level height and wherein the upper fill level and the lower fill level are located in the linear fill level region .
A heparin-functionalized biocompatible semi-permeable membrane, wherein said membrane comprises a layer of biocompatible non-woven polymer located between two layers of porous biocompatible polymers, wherein heparin is bound, through covalent or ionic/electrostatic bounds, to a priming layer on the surface of a porous biocompatible polymer, wherein the priming layer was first applied to said surface in order to allow the irreversible binding of heparin, thereby creating a heparin layer, wherein in that said porous biocompatible polymer of at least one layer is chosen from polycarbonate (PC), polyester, polyethyleneimine, polypropylene (PP), poly(ethylene terephthalate) (PET), poly(vinyl chloride) (PVC), polyamide and polyethylene (PE), and wherein the membrane is treated with a polymeric cationic amine in order to make it cationic.
Data carrier, in particular value documents or security document, with a translucent substrate with a front side and a back side; wherein in a first region luminescent material is applied to the front side of the substrate ; wherein in a second region luminescent material is applied to the back side of the substrate ; wherein the first region and the second region are arranged in register with one another; and wherein for the viewer, upon excitation from the front side, a luminescence image is produced in transmission, which comprises an image portion of the first region and comprises an image portion of the luminescent second region that laterally adjoins the image portion of the first region ; characterized in that in the first region and the second region at least one parameter, an opacity of the translucent substrate and/or a luminescence strength of the luminescent material, is chosen differently depending on the region, and the mutually adjoining image portions of the luminescence image have the same brightness value.
A method of wireless communication at a first scheduling entity, comprising: communicating with a set of one or more scheduled entities utilizing a first physical cell identifier, PCI; wherein the first PCI corresponds to a first primary synchronization signal, PSS, waveform; detecting a collision between the first PSS waveform and a third PSS waveform transmitted by a second scheduling entity located proximate to the first scheduling entity; selecting a second PCI, wherein the second PCI corresponds to a second PSS waveform different than the first PSS waveform, to avoid colliding with the third PSS waveform, wherein the first PSS waveform and the third PSS waveform are identical; and changing from the first PCI to the second PCI to communicate with the set of one or more scheduled entities. communicating with a set of one or more scheduled entities utilizing a first physical cell identifier, PCI; wherein the first PCI corresponds to a first primary synchronization signal, PSS, waveform; detecting a collision between the first PSS waveform and a third PSS waveform transmitted by a second scheduling entity located proximate to the first scheduling entity; selecting a second PCI, wherein the second PCI corresponds to a second PSS waveform different than the first PSS waveform, to avoid colliding with the third PSS waveform, wherein the first PSS waveform and the third PSS waveform are identical; and changing from the first PCI to the second PCI to communicate with the set of one or more scheduled entities.
A crystal pattern forming method comprising: an electromagnetic wave absorbing layer forming process for forming an electromagnetic wave absorbing layer on one of surfaces of a substrate ; an amorphous film forming process for forming an amorphous film on the electromagnetic wave absorbing layer; a crystallizing process for causing the substrate to be irradiated with an electromagnetic wave from the other one of the surfaces of the substrate to crystallize a given region in the amorphous film; characterized in a mask forming process for forming an electromagnetic wave blocking mask for blocking an electromagnetic wave on the other one of the surfaces of the substrate; wherein in the crystallizing process, the substrate is irradiated with the electromagnetic wave (L) from the other one of the surfaces of the substrate through the electromagnetic wave blocking mask; wherein in the mask forming process, a recessed structure is formed on the other one of the surfaces of the substrate, by selectively removing the other one of the surfaces of the substrate to form the recessed structure; said recessed structure serving as the electromagnetic wave blocking mask. an electromagnetic wave absorbing layer forming process for forming an electromagnetic wave absorbing layer on one of surfaces of a substrate ; an amorphous film forming process for forming an amorphous film on the electromagnetic wave absorbing layer; a crystallizing process for causing the substrate to be irradiated with an electromagnetic wave from the other one of the surfaces of the substrate to crystallize a given region in the amorphous film; characterized in a mask forming process for forming an electromagnetic wave blocking mask for blocking an electromagnetic wave on the other one of the surfaces of the substrate; wherein in the crystallizing process, the substrate is irradiated with the electromagnetic wave (L) from the other one of the surfaces of the substrate through the electromagnetic wave blocking mask; wherein in the mask forming process, a recessed structure is formed on the other one of the surfaces of the substrate, by selectively removing the other one of the surfaces of the substrate to form the recessed structure; said recessed structure serving as the electromagnetic wave blocking mask.
A method for determining the weight average molecular weight and the content of an acidic saccharide soluble salt, comprising the following steps: determining the weight average molecular weight and content of acidic saccharide in a sample of acidic saccharide soluble salt by SEC-MALS; measuring the weight percent content A of the salt-forming metal ions in the acidic saccharide soluble salt, thereby correcting the measurement result of the weight average molecular weight and content of the acidic saccharide in step ; the correction is calculated according to formula 1 and Formula 2: Weight average molecular weight M w Da = M w 1 / 1 − A In the above Formula : M w1 is the weight average molecular weight (Da) of acid saccharide directly obtained by SEC-MALS; A is the content of the metal ion in the acidic saccharide soluble salt; Content % = X / Y 1 − A × 100 % In the above Formula : X is the mass calculated by the spectrum processing software; Y is the mass of the injected sample; and A is the content of metal ions in the acidic saccharide soluble salt. determining the weight average molecular weight and content of acidic saccharide in a sample of acidic saccharide soluble salt by SEC-MALS; measuring the weight percent content A of the salt-forming metal ions in the acidic saccharide soluble salt, thereby correcting the measurement result of the weight average molecular weight and content of the acidic saccharide in step ; the correction is calculated according to formula 1 and Formula 2: Weight average molecular weight M w Da = M w 1 / 1 − A
An in-vehicle network system comprising: a network hub device provided in a vehicle body and coupled to a trunk network through which digital control signals are transmitted; and a sub hub device configured to perform input/output of a signal to/from an in-vehicle device provided in a partial body assembled to the vehicle body via a movable portion, characterized in that the sub hub device is provided in the partial body and is configured to transmit/receive digital control signals to/from the network hub device via a wire harness passing through the movable portion. a network hub device provided in a vehicle body and coupled to a trunk network through which digital control signals are transmitted; and a sub hub device configured to perform input/output of a signal to/from an in-vehicle device provided in a partial body assembled to the vehicle body via a movable portion, characterized in that the sub hub device is provided in the partial body and is configured to transmit/receive digital control signals to/from the network hub device via a wire harness passing through the movable portion.
An energy absorbing rub strip , the rub strip comprising: a dual density core material , the core material being configured to buckle under an application of a predetermined amount of force; and a fairing positioned over the core material, the fairing being configured to be attached to a fuselage of an aircraft, wherein support members connect the rub strip to structural members within the fuselage , wherein the density of the core material adjacent skin of the fuselage is lower than the density of the core material adjacent the support members connected to the fuselage . a dual density core material , the core material being configured to buckle under an application of a predetermined amount of force; and a fairing positioned over the core material, the fairing being configured to be attached to a fuselage of an aircraft, wherein support members connect the rub strip to structural members within the fuselage , wherein the density of the core material adjacent skin of the fuselage is lower than the density of the core material adjacent the support members connected to the fuselage .
A developing cartridge comprising: a casing configured to accommodate therein developer; a developer-carrying member configured to rotate about a rotational axis (A1) extending in an axial direction and carry the developer thereon; a supply member configured to supply the developer to the developer-carrying member ; a developing electrode configured to be electrically connected to the developer-carrying member ; a supply electrode configured to be electrically connected to the supply member and arranged to confront the developing electrode in the axial direction with a gap therebetween; characterised by an insulating member insulating the developing electrode and the supply electrode with each other and arranged between the developing electrode and the supply electrode and by further comprising a screw in common for fixing the developing electrode , the insulating member , and the supply electrode to the casing . a casing configured to accommodate therein developer; a developer-carrying member configured to rotate about a rotational axis (A1) extending in an axial direction and carry the developer thereon; a supply member configured to supply the developer to the developer-carrying member ; a developing electrode configured to be electrically connected to the developer-carrying member ; a supply electrode configured to be electrically connected to the supply member and arranged to confront the developing electrode in the axial direction with a gap therebetween; characterised by an insulating member insulating the developing electrode and the supply electrode with each other and arranged between the developing electrode and the supply electrode and by further comprising a screw in common for fixing the developing electrode , the insulating member , and the supply electrode to the casing .
Semiconducting material comprising: (i) at last one metal complex or metal salt comprising a divalent metal; and (ii) at least one matrix compound; characterized in that said matrix compound comprises a dialkylphosphine oxide group. (i) at last one metal complex or metal salt comprising a divalent metal; and (ii) at least one matrix compound; characterized in that said matrix compound comprises a dialkylphosphine oxide group.
A distance-measuring optoelectronic sensor for detecting objects in a detection area , comprising a light transmitter for transmitting a transmitted light beam , a deflection unit for deflecting the transmitted light beam into different deflection angles for scanning the detection area , an optical reference decoupling element in the beam path of the deflected transmitted light beam for generating a reference light beam , a light receiver having at least a first light receiving element (28a-c) and a second light receiving element (28a-c) for generating a measurement signal from the remitted transmitted light beam remitted by the objects and a reference signal from the reference light beam derived internally in the sensor from the transmitted light beam , and a control and evaluation unit configured to evaluate the measurement signal and the reference signal in order to determine a light time of flight of the transmitted light beam that is transmitted and received again, characterized in that the reference decoupling element comprises a plurality of reflection elements in varying oblique positions, a plurality of micromirrors or microprisms or, in a cross section, the shape of at least two circular sections (40a-b) that are offset relative to one another, and in that at least one light-receiving element (28a-c) assumes, depending on the deflection angle, an alternating function as a measurement receiving element for generating the measurement signal and as a reference receiving element for generating the reference signal so that a respective light receiving element (28a-c) functions as a reference receiving element that is not used as a measuring receiving element at this deflection angle.
A ventilator unit having at least one ventilator, which is accommodated in a housing, in which a first diffuser apparatus is located, which diffuser apparatus is assigned to the ventilator and has diffuser blades , which are arranged in a distributed manner over the circumference, and to which diffuser apparatus a further diffuser apparatus is assigned, which lies behind the first diffuser apparatus in the flow path of the intake air, has further diffuser blades and is part of a protective grating , the blade height ratio H = h N1max /h N2max lying between 0.2 and 2.5, preferably between 0.4 and 2, h N1max being the maximum height of the diffuser blades in the housing and h N2max being the maximum height of the further diffuser blades , characterized in that the further diffuser blades are arranged, at least over a part of their length, on at least one rod-shaped support , which connects rings of the protective grating to one another, which rings lie coaxially to one another.
A multi-stage aeration generator, comprising: an air dissolving pump comprising an air inlet and designed to mix air and wastewater along an inner section of the air dissolving pump so as to saturate the wastewater with air, said air dissolving pump having an adjustable speed and an adjustable air feeding; a pressure monitoring device installed on said air dissolving pump , wherein the pressure monitoring device comprises a pressure sensor and a pressure display apparatus connected with said pressure sensor, wherein the pressure sensor can sense the pressure formed by fluid in the pressure monitoring device , and can send the resulting pressure data to the pressure display apparatus; a plurality of foaming stages, each foaming stage comprising in sequence a Venturi nozzle , a capillary tube and a concentric tube , wherein one end of the capillary tube is connected to the Venturi nozzle , and the other end is connected to the concentric tube , wherein the concentric tube comprises an internal tubular member and an external tubular member, wherein the inlet of the Venturi nozzle of the first foaming stage is in fluid communication with the air dissolving pump so as to receive the mixture of air and wastewater from the air dissolving pump , wherein the inlet of the Venturi nozzle of each subsequent foaming stage is connected to the outlet of the concentric tube of the previous foaming stage.