mhurhangee/patent-ind-claim-en huggingface dataset:
A separating/positioning system comprising: a separating/positioning mechanism and a fixing frame on which the separating/positioning mechanism is securely mounted; the separating/positioning mechanism comprising: a fixed part ; at least one guide rod , one end of the at least one guide rod being fixed to the fixed part , the at least one guide rod being capable of making the sliding of a movable part along a gravity direction more steady; the movable part arranged on the at least one guide rod , the movable part being capable of sliding along the at least one guide rod so as to push a first assembly member placed on a horizontal conveying mechanism to separate from the conveying mechanism in order that the first assembly member is no longer affected by vibration of the conveying mechanism ; a power part , configured for the movable part to slide along the at least one guide rod ; and a positioning member arranged on the movable part , the positioning member being adapted to position the first assembly member that has separated from the conveying mechanism in order to make it easier for a robot to grab the first assembly member accurately. a separating/positioning mechanism and a fixing frame on which the separating/positioning mechanism is securely mounted; the separating/positioning mechanism comprising: a fixed part ; at least one guide rod , one end of the at least one guide rod being fixed to the fixed part , the at least one guide rod being capable of making the sliding of a movable part along a gravity direction more steady; the movable part arranged on the at least one guide rod , the movable part being capable of sliding along the at least one guide rod so as to push a first assembly member placed on a horizontal conveying mechanism to separate from the conveying mechanism in order that the first assembly member is no longer affected by vibration of the conveying mechanism ; a power part , configured for the movable part to slide along the at least one guide rod ; and a positioning member arranged on the movable part , the positioning member being adapted to position the first assembly member that has separated from the conveying mechanism in order to make it easier for a robot to grab the first assembly member accurately.
A printing apparatus comprising: a base unit that can move in a moving direction (A); a medium support unit configured to support a medium on which printing is to be performed and to move in the moving direction along with the base unit by being attached to the base unit; a printing unit that can print an image on the medium; and a housing unit that houses the printing unit and has an opening portion through which the medium support unit can move forward into the housing unit and backward out of the housing unit on one side in the moving direction, wherein the base unit has a stage and a lower rail and the medium support unit is fixed to an installation table including an upper rail which slides with respect to the lower rail such that, when a position of the medium support unit with respect to the base unit during printing is defined as a base position, the medium support unit is slidable with respect to the base unit from the base position in the moving direction, wherein when the medium support unit is located at the base position in a state in which the base unit is moved most to the outer side of the housing unit, at least a part of the medium support unit is located inside the housing unit with respect to the opening portion, and wherein when the medium support unit is slid from the base position in a state in which the base unit is moved most to the outer side of the housing unit, the part that was located inside the housing unit is exposed to outside of the housing unit. a base unit that can move in a moving direction (A); a medium support unit configured to support a medium on which printing is to be performed and to move in the moving direction along with the base unit by being attached to the base unit; a printing unit that can print an image on the medium; and a housing unit that houses the printing unit and has an opening portion through which the medium support unit can move forward into the housing unit and backward out of the housing unit on one side in the moving direction, wherein the base unit has a stage and a lower rail and the medium support unit is fixed to an installation table including an upper rail which slides with respect to the lower rail such that, when a position of the medium support unit with respect to the base unit during printing is defined as a base position, the medium support unit is slidable with respect to the base unit from the base position in the moving direction, wherein when the medium support unit is located at the base position in a state in which the base unit is moved most to the outer side of the housing unit, at least a part of the medium support unit is located inside the housing unit with respect to the opening portion, and wherein when the medium support unit is slid from the base position in a state in which the base unit is moved most to the outer side of the housing unit, the part that was located inside the housing unit is exposed to outside of the housing unit.
An anti-explosion gas generator for health use comprising an electrolysis device for electrolyzing water to produce a gas comprising hydrogen, comprising: a power supply electrically connected to the electrolysis device and adapted for supplying power to the electrolysis device; a flow controller configured to control the flow rate of the gas comprising hydrogen, wherein the flow controller selectively adjusts the power level of the power supply so that the flow rate of the gas comprising hydrogen is controllable more than 0.1L/min; characterized by further comprising: a humidifier coupled to the electrolysis device to filter the gas comprising hydrogen; and an atomized/volatile gas mixing tank coupled to the humidifier , the atomized/volatile gas mixing tank being configured to receive the filtered gas, to generate an atomized gas and to mix the atomized gas with the filtered gas comprising hydrogen, wherein the atomized gas is a water vapor, an atomized medicine, a volatile essential oil, or a combination thereof. a power supply electrically connected to the electrolysis device and adapted for supplying power to the electrolysis device; a flow controller configured to control the flow rate of the gas comprising hydrogen, wherein the flow controller selectively adjusts the power level of the power supply so that the flow rate of the gas comprising hydrogen is controllable more than 0.1L/min; characterized by further comprising: a humidifier coupled to the electrolysis device to filter the gas comprising hydrogen; and an atomized/volatile gas mixing tank coupled to the humidifier , the atomized/volatile gas mixing tank being configured to receive the filtered gas, to generate an atomized gas and to mix the atomized gas with the filtered gas comprising hydrogen, wherein the atomized gas is a water vapor, an atomized medicine, a volatile essential oil, or a combination thereof. a humidifier coupled to the electrolysis device to filter the gas comprising hydrogen; and an atomized/volatile gas mixing tank coupled to the humidifier , the atomized/volatile gas mixing tank being configured to receive the filtered gas, to generate an atomized gas and to mix the atomized gas with the filtered gas comprising hydrogen, wherein the atomized gas is a water vapor, an atomized medicine, a volatile essential oil, or a combination thereof.
A method of wireless communication, comprising: receiving , from a first remote wireless device (115-a), a first monitoring request comprising a group communication identifier, a first priority indicator, and a first time stamp; receiving, from a second remote wireless device (115-a), a second monitoring request comprising the group communication identifier, a second priority indicator and a second time stamp; receiving broadcast content associated with the group communication identifier; and relaying the broadcast content to one of the remote wireless devices (115-a) based at least in part on a last received priority indicator from a set comprising the first priority indicator and the second priority indicator, wherein the last received priority indicator is determined based at least in part on a comparison of the first and second time-stamp. receiving , from a first remote wireless device (115-a), a first monitoring request comprising a group communication identifier, a first priority indicator, and a first time stamp; receiving, from a second remote wireless device (115-a), a second monitoring request comprising the group communication identifier, a second priority indicator and a second time stamp; receiving broadcast content associated with the group communication identifier; and relaying the broadcast content to one of the remote wireless devices (115-a) based at least in part on a last received priority indicator from a set comprising the first priority indicator and the second priority indicator, wherein the last received priority indicator is determined based at least in part on a comparison of the first and second time-stamp.
Agricultural spreader machine with a distributor boom and a chassis supported on the ground, wherein the distributor boom is suspended so as to be movable and/or height-adjustable in relation to the chassis about a pivot axis running in the direction of travel, and has a width which is measured transversely with respect to the direction of travel and is a multiple of the transport width of the spreader machine , and a damping element for damping the movement of the distributor boom is provided which influences the extent by which the distributor boom is coupled to the chassis and which can be activated by an electronic control device to which a sensor value regarding the current driving state of the chassis can be applied and which can be operated to change the damping of the damping element on the basis of the sensor value, wherein the electronic control device is programmed to proactively calculate an anticipated driving state of the spreader machine on the basis of the sensor value and variable physical variables of the spreader machine and, with reference to the anticipated driving state of the spreader machine , to output a control signal to the damping element in order to adjust the damping thereof with the effect of minimizing undesired movements of the distributor boom .
Optical system having a single-line or multi-line matrix of radiation sources and an optical unit , wherein the optical unit has a plurality of coupling-in surfaces (10-32; 54-76) for the radiation from in each case one radiation source or in each case a plurality of radiation sources and a coupling-out surface , wherein the coupling-in surfaces (10-32; 54-76) each have an optical main axis , wherein the optical unit (2; 52) has an optical main axis (40; 50), wherein the optical main axis of at least one of the coupling-in surfaces (10-18, 24-32; 54-60, 70-76) is inclined towards the optical main axis (40; 50) of the optical unit (2; 52), and wherein a plurality of projections are provided for in each case one or more coupling-in surfaces (10-32; 54-76), characterized in that , the greater the inclination of the optical main axis of the respective coupling-in surface (10-32; 54-76) is, the shorter is the projection thereof, and the radiation sources are arranged in one plane.
A method to display an image, comprising: receiving one or more incoming light rays at a first surface of a transparent front sheet , the front sheet having a refractive index; forming a first optical state by directing a plurality of first electrophoretically mobile particles to a region adjacent a first electrode and directing a plurality of second electrophoretically mobile particles to a region adjacent a second and a third electrodes; forming a second optical state by directing the plurality of second electrophoretically mobile particles to the region adjacent the first electrode and directing the plurality of first electrophoretically mobile particles to the region adjacent the second and the third electrodes; and forming a third optical state by total internal reflection by directing the plurality of first electrophoretically mobile particles to a region adjacent the second electrode and directing the second plurality of electrophoretically mobile particles to a region adjacent the third electrode; wherein the plurality of first electrophoretically mobile particles comprise a first charge polarity and a first optical characteristic; wherein the plurality of second electrophoretically mobile particles comprise a second charge polarity and a second optical characteristic; and wherein the first charge and the second charge are opposite in polarity. receiving one or more incoming light rays at a first surface of a transparent front sheet , the front sheet having a refractive index; forming a first optical state by directing a plurality of first electrophoretically mobile particles to a region adjacent a first electrode and directing a plurality of second electrophoretically mobile particles to a region adjacent a second and a third electrodes; forming a second optical state by directing the plurality of second electrophoretically mobile particles to the region adjacent the first electrode and directing the plurality of first electrophoretically mobile particles to the region adjacent the second and the third electrodes; and forming a third optical state by total internal reflection by directing the plurality of first electrophoretically mobile particles to a region adjacent the second electrode and directing the second plurality of electrophoretically mobile particles to a region adjacent the third electrode; wherein the plurality of first electrophoretically mobile particles comprise a first charge polarity and a first optical characteristic; wherein the plurality of second electrophoretically mobile particles comprise a second charge polarity and a second optical characteristic; and wherein the first charge and the second charge are opposite in polarity.
Aqueous extraction process for obtaining a tannin extract isolated from grapes which process comprises using a source of tannins, preparing an aqueous solution of a polyphenol-solubilising agent and performing a tannin extraction step in a reactor that comprises the source of tannins and the prepared aqueous solution at a given pressure and temperature, characterised in that : - the source of tannins consists of grape whole-seeds, - the polyphenol-solubilising agent is selected from urea, sodium hydroxide and a compound containing the SOs group, and its concentration in the aqueous solution ranges between 1% and 15% by weight with respect to the weight of the grape whole-seeds, and - a single extraction step performed in a one-pot by using an autoclave reactor at a pressure ranging between 1 and 6 atmospheres, and a temperature ranging between 80°C and 160°C, and - optionally, concentrating the extract by evaporation, to obtain a concentrated tannin extract isolated from grape whole-seeds, and/or spray drying, to obtain a solid tannin extract isolated from grape whole-seeds. - the source of tannins consists of grape whole-seeds, - the polyphenol-solubilising agent is selected from urea, sodium hydroxide and a compound containing the SOs group, and its concentration in the aqueous solution ranges between 1% and 15% by weight with respect to the weight of the grape whole-seeds, and - a single extraction step performed in a one-pot by using an autoclave reactor at a pressure ranging between 1 and 6 atmospheres, and a temperature ranging between 80°C and 160°C, and - optionally, concentrating the extract by evaporation, to obtain a concentrated tannin extract isolated from grape whole-seeds, and/or spray drying, to obtain a solid tannin extract isolated from grape whole-seeds.
Watertight, water-vapour permeable multi-layer membrane, having at least one first and one second layer, wherein all layers are made of a thermoplastic polymer from the group of the polyether esters, the group of the polyether amides or the group of the polyether urethanes, and are connected with one another, characterised in that the multi-layer membrane is free of plasticiser and that layers disposed adjacent to one another are made of thermoplastic polymers of different groups.
A method for wireless communication, comprising: configuring a user equipment, UE, to monitor a first set of decoding candidates in a first control symbol period of a slot, wherein each decoding candidate in the first set corresponds to at least one control channel element in the first control symbol period; configuring the UE to monitor a second set of decoding candidates in a second control symbol period of the slot, wherein each decoding candidate in the second set corresponds to at least one control channel element in the second control symbol period, and wherein a decoding candidate in the second set is aligned at symbol boundaries in the frequency domain with a decoding candidate in the first set; and transmitting control signaling within a control resource set for the UE in the slot in a control channel element corresponding to one or more decoding candidates of the first set of decoding candidates, one or more decoding candidates of the second set of decoding candidates, or both. configuring a user equipment, UE, to monitor a first set of decoding candidates in a first control symbol period of a slot, wherein each decoding candidate in the first set corresponds to at least one control channel element in the first control symbol period; configuring the UE to monitor a second set of decoding candidates in a second control symbol period of the slot, wherein each decoding candidate in the second set corresponds to at least one control channel element in the second control symbol period, and wherein a decoding candidate in the second set is aligned at symbol boundaries in the frequency domain with a decoding candidate in the first set; and transmitting control signaling within a control resource set for the UE in the slot in a control channel element corresponding to one or more decoding candidates of the first set of decoding candidates, one or more decoding candidates of the second set of decoding candidates, or both.
A seal arrangement (178;478;578) for a gas turbine engine , comprising: a component (61;69;70;161;461A,461B;569A,569B) including a body having a cold side surface (180;480A,480B) adjacent to a mate face (81;181;481A,481B;581A,581B); and a seal member (82;182;282;382;482) including a leading edge region (187;287;387) and a trailing edge region (188;288;388) spaced by sidewalls (189;289;389;489;589), the seal member (82...482) defining one or more grooves (184;284;384;484;584), the one or more grooves (184...584) abutting the cold side surface (180;480A,480B) to define one or more cooling passages (191;491;591), with at least one of the one or more cooling passages (191;491;591) having a flared inlet defined by a corresponding first end (185,185A-C;285;385A-C;485) of one of the one or more grooves (184...584) and an outlet defined by a corresponding second end (186,186A-C;286;386A-C;486) of the one or more grooves (184...584) opposite the first end (185...485); characterised in that : at least some of the one or more grooves (184...584) have a curved profile; and the first end (185...485) tapers inwardly from one of the sidewalls (189...589) to define the flared inlet, the second end (186...486) is adjacent to the mate face (81 ...581B), and the second end is separated from the first end in a chordwise direction (X). a component (61;69;70;161;461A,461B;569A,569B) including a body having a cold side surface (180;480A,480B) adjacent to a mate face (81;181;481A,481B;581A,581B); and a seal member (82;182;282;382;482) including a leading edge region (187;287;387) and a trailing edge region (188;288;388) spaced by sidewalls (189;289;389;489;589), the seal member (82...482) defining one or more grooves (184;284;384;484;584), the one or more grooves (184...584) abutting the cold side surface (180;480A,480B) to define one or more cooling passages (191;491;591), with at least one of the one or more cooling passages (191;491;591) having a flared inlet defined by a corresponding first end (185,185A-C;285;385A-C;485) of one of the one or more grooves (184...584) and an outlet defined by a corresponding second end (186,186A-C;286;386A-C;486) of the one or more grooves (184...584) opposite the first end (185...485); characterised in that : at least some of the one or more grooves (184...584) have a curved profile; and the first end (185...485) tapers inwardly from one of the sidewalls (189...589) to define the flared inlet, the second end (186...486) is adjacent to the mate face (81 ...581B), and the second end is separated from the first end in a chordwise direction (X). at least some of the one or more grooves (184...584) have a curved profile; and the first end (185...485) tapers inwardly from one of the sidewalls (189...589) to define the flared inlet, the second end (186...486) is adjacent to the mate face (81 ...581B), and the second end is separated from the first end in a chordwise direction (X).
An electrical motor vehicle vacuum pump arrangement comprising a housing assembly with an inlet opening arrangement and an outlet opening arrangement , which housing assembly has a pump apparatus and a drive motor , wherein said pump apparatus has a pump rotor housing composed of an inlet-side and an outlet-side face wall and of a pump rotor housing part arranged therebetween, which enclose a pump rotor chamber in which a pump rotor is provided, wherein said drive motor has a motor rotor and a motor stator, wherein sound damping means for noise reduction are provided, wherein said sound damping means have at least two sound damping chambers connected in series, wherein said first sound damping chamber is fluidically connected to said pump rotor chamber via a first connecting arrangement and is fluidically connected to said second sound damping chamber via a second connecting arrangement , and wherein said second sound damping chamber is fluidically connected to said outlet opening arrangement , wherein at least one sound damping means in the form of a bore arrangement is provided for said outlet opening arrangement , characterized in that the outlet opening arrangement is provided as a bore arrangement in the form of successive bore elements in the outlet-side face wall , in the pump rotor housing part and in the inlet-side face wall .
A user equipment , comprising: a receiving unit for receiving identities of network entities of a second network during a handover process of the user equipment from a first network to the second network; and a calculating unit for calculating a set of associated keys for an authentication process to be performed in the second network using the identities of the network entities, wherein the set of associated keys comprises a ciphering key and an integrity protection key, and wherein the calculating unit is configured to calculate the set of associated keys based on a random value used in an authentication process of the first network, a ciphering key used in an authentication process of the first network and an integrity protection key used in an authentication process of the first network. a receiving unit for receiving identities of network entities of a second network during a handover process of the user equipment from a first network to the second network; and a calculating unit for calculating a set of associated keys for an authentication process to be performed in the second network using the identities of the network entities, wherein the set of associated keys comprises a ciphering key and an integrity protection key, and wherein the calculating unit is configured to calculate the set of associated keys based on a random value used in an authentication process of the first network, a ciphering key used in an authentication process of the first network and an integrity protection key used in an authentication process of the first network.