mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for fabricating a refrigerator with base materials provided as plate members constituting the refrigerator and a thin plate capable of resisting heat conduction, the apparatus comprising: a laser source for providing a laser beam; a jig comprising a base configured to support the base material and the thin plate , and a cover provided opposite to the base , wherein the jig is configured to enable the base material and the thin plate to be welded to each other by being irradiated with the laser beam applied from the laser source ; and a vacuum pump for applying a vacuum pressure to the jig , characterized in that the base comprises a groove configured to receive the thin plate and through which the vacuum pressure is applicable to the thin plate such that a force pulls the thin plate into the groove . a laser source for providing a laser beam; a jig comprising a base configured to support the base material and the thin plate , and a cover provided opposite to the base , wherein the jig is configured to enable the base material and the thin plate to be welded to each other by being irradiated with the laser beam applied from the laser source ; and a vacuum pump for applying a vacuum pressure to the jig , characterized in that the base comprises a groove configured to receive the thin plate and through which the vacuum pressure is applicable to the thin plate such that a force pulls the thin plate into the groove .
An apparatus , comprising: means for processing configured to determine that information associated with the apparatus, stored in the apparatus, has changed; means for receiving configured to receive a handover instruction instructing the apparatus to handover to a second base station; the means for processing being configured to cause a means for transmitting to inform the second base station of the changed information, characterized in that the means for processing are configured to cause the informing only if at most a predefined length of time elapses between the determination and associating with the second base station, and in that the information associated with the apparatus comprises power preference information. means for processing configured to determine that information associated with the apparatus, stored in the apparatus, has changed; means for receiving configured to receive a handover instruction instructing the apparatus to handover to a second base station; the means for processing being configured to cause a means for transmitting to inform the second base station of the changed information, characterized in that the means for processing are configured to cause the informing only if at most a predefined length of time elapses between the determination and associating with the second base station, and in that the information associated with the apparatus comprises power preference information.
Suction pile provided, preferably near its top bulkhead and possibly at a level spaced below the level of this bulkhead viewed in the upright condition of the suction pile, with an extendable or unfoldable seabed scour protection device comprising a web cover or screen, when extended or unfolded, the seabed adjacent the suction pile to avoid scouring, wherein the folded protection device, surrounding the suction pile at a level between the open bottom and closed top, is suspended from hook members fixed to the suction pile in such a manner that with the suction pile in the upright attitude, having the longitudinal axis vertical and the open bottom below closed top, the downward and outward movement of the top edge of the protection device relative to the suction pile is retained by the hook members and the upward relative movement is not retained by the hook members and sufficient upward relative movement causes that the protection device becomes outside the retaining influence of the hook members such that the protection device is released from the hook members such that the top edge of the protection device is allowed to move outward, and thus the protection device unfolds .
An aerosol generating device for use in an aerosol-generating system , the aerosol-generating device comprising: an outer housing , adapted to receive an aerosol-generating article comprising a first compartment comprising a volatile liquid, and a second compartment comprising a delivery enhancing compound; a power supply ; at least one heater , configured to receive power from the power supply and arranged to heat the first compartment when an aerosol-generating article is received in the outer housing ; at least one further heater configured to receive power from the power supply and arranged to heat the second compartment when the aerosol-generating article is received in the outer housing ; an input , configured to receive a plurality of discrete inputs from a user, each discrete input corresponding to a respective discrete quantity of aerosolised volatile liquid required by the user, each discrete input from the user corresponding to a respective discrete duty cycle; and a controller , configured to control the amount of power supplied to the at least one heater by changing the duty cycle, such that the quantity of volatile liquid aerosolised is determined by the user input; wherein the controller is further configured to control the amount of power supplied to the at least one further heater, such that a quantity of delivery enhancing compound aerosolised is proportional to the quantity of volatile liquid aerosolised. an outer housing , adapted to receive an aerosol-generating article comprising a first compartment comprising a volatile liquid, and a second compartment comprising a delivery enhancing compound; a power supply ; at least one heater , configured to receive power from the power supply and arranged to heat the first compartment when an aerosol-generating article is received in the outer housing ; at least one further heater configured to receive power from the power supply and arranged to heat the second compartment when the aerosol-generating article is received in the outer housing ; an input , configured to receive a plurality of discrete inputs from a user, each discrete input corresponding to a respective discrete quantity of aerosolised volatile liquid required by the user, each discrete input from the user corresponding to a respective discrete duty cycle; and a controller , configured to control the amount of power supplied to the at least one heater by changing the duty cycle, such that the quantity of volatile liquid aerosolised is determined by the user input; wherein the controller is further configured to control the amount of power supplied to the at least one further heater, such that a quantity of delivery enhancing compound aerosolised is proportional to the quantity of volatile liquid aerosolised.
A system for monitoring an operational area , the system comprising: a processor configured to: receive plural data streams, each data stream including a different spatial characteristic of the operational area ; generate a three-dimensional, 3D, virtual visualization of the operational area based on observational perspectives associated with the data streams and their associated spatial characteristics; characterized in that the processor is further configured to dynamically prioritize operational sub-regions within the operational area based on the spatial characteristics by applying a weighting criteria to each data stream according to at least a sensor that generated the data stream; and generate a signal encoded with data for verifying the 3D virtual visualization of the operational area including the prioritized operational sub-regions . a processor configured to: receive plural data streams, each data stream including a different spatial characteristic of the operational area ; generate a three-dimensional, 3D, virtual visualization of the operational area based on observational perspectives associated with the data streams and their associated spatial characteristics; characterized in that the processor is further configured to dynamically prioritize operational sub-regions within the operational area based on the spatial characteristics by applying a weighting criteria to each data stream according to at least a sensor that generated the data stream; and generate a signal encoded with data for verifying the 3D virtual visualization of the operational area including the prioritized operational sub-regions .
A sample evaluation system, comprising: an incubator comprising: a body; a sample conditioning device, wherein the sample conditioning device is one of a fluid agitator, a heating device, a cooling device, a moisture removal device, a moisture adding device, a pH control element, a humidity control element, an oxygen control element, a carbon dioxide control element, or a light control element; and, a sample assembly, the sample assembly comprising: a lid; an ampule; a sample gathering device coupled to the lid; wherein the sample assembly is positionable between a sample gathering position and a sample incubating position; and a sample conditioning medium housed within the ampule. a body; a sample conditioning device, wherein the sample conditioning device is one of a fluid agitator, a heating device, a cooling device, a moisture removal device, a moisture adding device, a pH control element, a humidity control element, an oxygen control element, a carbon dioxide control element, or a light control element; and, a sample assembly, the sample assembly comprising: a lid; an ampule; a sample gathering device coupled to the lid; wherein the sample assembly is positionable between a sample gathering position and a sample incubating position; and a sample conditioning medium housed within the ampule. a lid; an ampule; a sample gathering device coupled to the lid; wherein the sample assembly is positionable between a sample gathering position and a sample incubating position; and a sample conditioning medium housed within the ampule.
An antagonist of NMDAR for use in treating tumor angiogenesis.
A control information transmission method performed by a network device, comprising: mapping a control resource set for transmitting control information to at least one Resource Block, RB, adjacent to an RB occupied by a Synchronization Signal, SS, block in accordance with a predetermined mapping mode; and transmitting the predetermined mapping mode to a User Equipment, UE, and transmitting the control information to the UE on the at least one RB occupied by the control resource set, the control information transmission method being characterized in that the mapping the control resource set for transmitting the control information to at least one RB adjacent to the RB occupied by the SS block in accordance with the predetermined mapping mode comprises: mapping the control resource set for transmitting the control information to at least one RB adjacent to an RB occupied by a Physical Broadcast Channel, PBCH, in the SS block in accordance with the predetermined mapping mode; and the at least one RB adjacent to the RB occupied by the PBCH comprises at least one RB at a same time domain as, and at a different frequency domain from, the RB occupied by the PBCH. mapping a control resource set for transmitting control information to at least one Resource Block, RB, adjacent to an RB occupied by a Synchronization Signal, SS, block in accordance with a predetermined mapping mode; and transmitting the predetermined mapping mode to a User Equipment, UE, and transmitting the control information to the UE on the at least one RB occupied by the control resource set, the control information transmission method being characterized in that the mapping the control resource set for transmitting the control information to at least one RB adjacent to the RB occupied by the SS block in accordance with the predetermined mapping mode comprises: mapping the control resource set for transmitting the control information to at least one RB adjacent to an RB occupied by a Physical Broadcast Channel, PBCH, in the SS block in accordance with the predetermined mapping mode; and the at least one RB adjacent to the RB occupied by the PBCH comprises at least one RB at a same time domain as, and at a different frequency domain from, the RB occupied by the PBCH.
A process for refining a nitrogen-containing metal alloy using arc remelting of a consumable electrode in a furnace, comprising: - providing a consumable electrode of the metal alloy; - providing a second electrode; - providing a controlled atmosphere within the furnace; - striking an arc between the consumable electrode and the second electrode to melt the consumable electrode and thereby form a molten metal alloy pool; - maintaining the arc between the consumable electrode and the molten metal alloy pool; - delivering the molten metal alloy into a mould and casting an ingot of refined metal alloy; - providing the controlled atmosphere comprises flowing Ar gas through the furnace at an Ar gas pressure of 1-500 Pa; - establishing a stable flow of Ar gas through the furnace prior to striking the arc wherein flowing Ar gas through the furnace comprises continuously flowing Ar gas at a constant or at an essentially constant Ar gas pressure; wherein a mean arc voltage used to maintain the arc is within the range of 20-25 V. - providing a consumable electrode of the metal alloy; - providing a second electrode; - providing a controlled atmosphere within the furnace; - striking an arc between the consumable electrode and the second electrode to melt the consumable electrode and thereby form a molten metal alloy pool; - maintaining the arc between the consumable electrode and the molten metal alloy pool; - delivering the molten metal alloy into a mould and casting an ingot of refined metal alloy; - providing the controlled atmosphere comprises flowing Ar gas through the furnace at an Ar gas pressure of 1-500 Pa; - establishing a stable flow of Ar gas through the furnace prior to striking the arc wherein flowing Ar gas through the furnace comprises continuously flowing Ar gas at a constant or at an essentially constant Ar gas pressure;
An oral dosage form comprising a composition having an enteric- or pH-sensitive coating or layer surrounding same, said composition comprising: a therapeutically-effective amount of a polar agent having at least one group that confers a degree of partial or permanent charge on the polar agent that is greater than or equal to the charge of a hydroxyl group, a carboxyl group, an imidazole group, an amino group, a guanidine group, a phosphate group, or a sulfate group, and a permeability-enhancing amount of a permeability enhancer comprising glycerol or dimethylpalmityl-ammonio propanesulfonate, wherein the permeability enhancer is present in the composition at a concentration from 5% to 95% of the combined weight of the polar agent and the permeability enhancer and the amount of the polar agent transported across a Caco-2 cell membrane by said oral dosage form is increased by at least 150% relative to the amount transported across the Caco-2 cell membrane in the absence of the permeability enhancer. a therapeutically-effective amount of a polar agent having at least one group that confers a degree of partial or permanent charge on the polar agent that is greater than or equal to the charge of a hydroxyl group, a carboxyl group, an imidazole group, an amino group, a guanidine group, a phosphate group, or a sulfate group, and a permeability-enhancing amount of a permeability enhancer comprising glycerol or dimethylpalmityl-ammonio propanesulfonate, wherein the permeability enhancer is present in the composition at a concentration from 5% to 95% of the combined weight of the polar agent and the permeability enhancer and the amount of the polar agent transported across a Caco-2 cell membrane by said oral dosage form is increased by at least 150% relative to the amount transported across the Caco-2 cell membrane in the absence of the permeability enhancer.
A method of transmitting an uplink signal by a user equipment , UE, in a wireless communication system, the method comprising: receiving (S800) a downlink channel comprising a timing advance, TA, command related to an index value for performing a timing advance operation by the UE ; determining (S810) a TA value for the timing advance operation based on (i) the TA command and (ii) a basic unit of the TA value, transmitting (S820) the uplink signal according to the timing advance operation based on the TA value, wherein the TA value is configured to (i) increase as the index value indicated by the TA command increases, and (ii) decrease as the largest value among the subcarrier spacing values increases characterized in that the basic unit of the TA value is determined based on a largest value among subcarrier spacing values of the plurality of uplink bandwidth parts of the UE . receiving (S800) a downlink channel comprising a timing advance, TA, command related to an index value for performing a timing advance operation by the UE ; determining (S810) a TA value for the timing advance operation based on (i) the TA command and (ii) a basic unit of the TA value, transmitting (S820) the uplink signal according to the timing advance operation based on the TA value, wherein the TA value is configured to (i) increase as the index value indicated by the TA command increases, and (ii) decrease as the largest value among the subcarrier spacing values increases
An electronic lock , namely a door lock , comprising a handle for actuating said door lock , a vibration element for generating vibrations , and a driver element for driving said vibration element , characterized in that said vibration element is vibrated by said driver element in such a way that different haptic signals can be output by different vibration patterns at said handle for signalling different operating states and/or error states of said electronic lock , that a closing element in the form of a lock cylinder cooperates with said handle , and that said closing element is coupled to said handle .
A tie down assembly for securing a component to a structure, comprising: a clasp ; a ring rotatably coupled to the clasp ; and a support coupler that is coupled to the ring , wherein the support coupler frictionally controls rotation of the ring with respect to the clasp, and wherein the clasp comprises a securing plate and lateral prongs extending from the securing plate , the lateral prongs being separated by a gap , wherein each of the lateral prongs defines a channel through which a portion of the ring is positioned, characterized in that the support coupler comprises a base , wherein the base underlies the securing plate such that in use the base directly contacts the structure. a clasp ; a ring rotatably coupled to the clasp ; and a support coupler that is coupled to the ring , wherein the support coupler frictionally controls rotation of the ring with respect to the clasp, and wherein the clasp comprises a securing plate and lateral prongs extending from the securing plate , the lateral prongs being separated by a gap , wherein each of the lateral prongs defines a channel through which a portion of the ring is positioned, characterized in that the support coupler comprises a base , wherein the base underlies the securing plate such that in use the base directly contacts the structure.
Method for the detection of aerosol particles in ambient air, comprising a. Providing a photoacoustic gas sensor comprising. - a modulable emitter, - an analysis volume which is in fluid communication with the ambient air, wherein the analysis volume is an open system having one or more openings such that ambient air comprising aerosol particles can flow or diffuse into the analysis volume, - a MEMS sensor for the detection of sound pressure waves, wherein the analysis volume is present in the beam path of the emitter such that the emitter can use modulable radiation to excite aerosol particles in the analysis volume to form sound pressure waves which are detectable by means of the sensor, b. Irradiating the analysis volume with radiation modulated with a modulation frequency to generate sound pressure waves c. Measuring the generated sound pressure waves by means of the sensor d. Determining the presence and/or concentration of aerosol particles in the ambient air based on the measurement results characterized in that the aerosol particles are bioaerosols and wherein by means of a control unit a selective excitation and detection of the aerosol particles is performed by tuning the wavelength of the emitted radiation to the absorption behavior of the aerosol particles. a. Providing a photoacoustic gas sensor comprising. - a modulable emitter, - an analysis volume which is in fluid communication with the ambient air, wherein the analysis volume is an open system having one or more openings such that ambient air comprising aerosol particles can flow or diffuse into the analysis volume, - a MEMS sensor for the detection of sound pressure waves, wherein the analysis volume is present in the beam path of the emitter such that the emitter can use modulable radiation to excite aerosol particles in the analysis volume to form sound pressure waves which are detectable by means of the sensor, - a modulable emitter, - an analysis volume which is in fluid communication with the ambient air, wherein the analysis volume is an open system having one or more openings such that ambient air comprising aerosol particles can flow or diffuse into the analysis volume, - a MEMS sensor for the detection of sound pressure waves, b. Irradiating the analysis volume with radiation modulated with a modulation frequency to generate sound pressure waves c. Measuring the generated sound pressure waves by means of the sensor d. Determining the presence and/or concentration of aerosol particles in the ambient air based on the measurement results
A method at a primary communication device capable of communicating with a secondary communication device, the method comprising: - recognizing (4:10) a successful log-in of the primary communication device; - determining (4:40) that the secondary communication device requires the log-in of the primary communication device to be extended to the secondary communication device; - receiving (4:50), from the secondary communication device, physiological data associated with the user of the secondary communication device and captured by at least one sensor of the secondary communication device, via the body of said user; - capturing (4:60) physiological data sensed by at least one sensor of the primary communication device via the body of said user; - comparing (4:70) the acquired physiological data and determining whether there is a match between the compared physiological data, and - transmitting (4:80), to the secondary communication device, at least one credential required by the secondary communication device for extending said log-in to the secondary communication device in case there is a match between the compared physiological data. - recognizing (4:10) a successful log-in of the primary communication device; - determining (4:40) that the secondary communication device requires the log-in of the primary communication device to be extended to the secondary communication device; - receiving (4:50), from the secondary communication device, physiological data associated with the user of the secondary communication device and captured by at least one sensor of the secondary communication device, via the body of said user; - capturing (4:60) physiological data sensed by at least one sensor of the primary communication device via the body of said user; - comparing (4:70) the acquired physiological data and determining whether there is a match between the compared physiological data, and - transmitting (4:80), to the secondary communication device, at least one credential required by the secondary communication device for extending said log-in to the secondary communication device in case there is a match between the compared physiological data.