mhurhangee/ep-ind-claims huggingface dataset:
A method of assembling a temperature sensing device for a gas turbine engine, said method comprising: providing a temperature sensor; providing a housing that directs cooling air from a forward region of the housing to an aft region of the housing; mounting the temperature sensor within the housing such that a tip of the temperature sensor is disposed outside of the housing; providing a cooling tube disposed forward of, and substantially parallel to, the temperature sensor within the housing and having a plurality of impingement apertures, wherein cooling air is drawn into the cooling tube based at least in part on a pressure differential; and providing a set of support ribs that are coupled to the cooling tube and the temperature sensor in a spaced-apart relationship defining a plurality of separate cooling regions within the housing, wherein the cooling air is directed, based at least in part on a pressure differential, longitudinally through the cooling tube and discharged through the set of impingement apertures to flow within the cooling regions. providing a temperature sensor; providing a housing that directs cooling air from a forward region of the housing to an aft region of the housing; mounting the temperature sensor within the housing such that a tip of the temperature sensor is disposed outside of the housing; providing a cooling tube disposed forward of, and substantially parallel to, the temperature sensor within the housing and having a plurality of impingement apertures, wherein cooling air is drawn into the cooling tube based at least in part on a pressure differential; and providing a set of support ribs that are coupled to the cooling tube and the temperature sensor in a spaced-apart relationship defining a plurality of separate cooling regions within the housing, wherein the cooling air is directed, based at least in part on a pressure differential, longitudinally through the cooling tube and discharged through the set of impingement apertures to flow within the cooling regions.
Tape guide device for handle applicator head, said device comprising an elongated body having a frontal face that pushes said tape into contact with an item on which a handle must be applied, said body being provided with a central slot that houses a pusher driven by at least one actuator, characterized in that said actuator moves the pusher in a direction substantially perpendicular to the longitudinal axis of the body between a rest position in which it is inside the body and an operative position in which it projects with respect to the body on said frontal face.
A bending tool storage device for storing bending tools, comprising: - a preferably shelf-type rack on which a plurality of storage locations for bending tools are arranged, - at least one supply path, preferably in the form of a tool guide, for issuing and/or retrieving bending tools, - at least one first transfer device for transferring bending tools between the storage locations and a transfer point, wherein the bending tool storage device has between the transfer point and the supply path a rotating device for rotating the bending tools, characterized in that the storage device has at least a second transfer device, by means of which a bending tool can be displaced along the tool guide of the supply path. - a preferably shelf-type rack on which a plurality of storage locations for bending tools are arranged, - at least one supply path, preferably in the form of a tool guide, for issuing and/or retrieving bending tools, - at least one first transfer device for transferring bending tools between the storage locations and a transfer point,
An inorganic composite for rubber reinforcement, comprising secondary particles formed by agglomeration of silica primary particles and amorphous aluminosilicate primary particles having a composition represented by the following Chemical Formula 1, wherein the secondary particles comprise 65 to 95 wt% of the silica primary particles and 5 to 35 wt% of the amorphous aluminosilicate primary particles based on a total weight of the secondary particles, a number average primary particle diameter of the silica primary particles is 20 nm or more and 25 nm or less, a number average primary particle diameter of the amorphous aluminosilicate primary particles is 20 nm or more and 25 nm or less, and the average particle diameter of the secondary particles is 25 μ m or or less, wherein the particle diameters are determined according to the description: [Chemical Formula 1] M x/n [(AlO 2) x,(SiO 2) y]· m(H 2 O) wherein, in Chemical Formula 1, M is an element selected from the group consisting of Li, Na, K, Rb, Cs, Be, and Fr, or ions thereof; x> 0, y > 0, n > 0, and m ≥ 0; 1.0 ≤ y / x ≤ 10.0; and 0.01 ≤ x / n ≤ 1.2. wherein the secondary particles comprise 65 to 95 wt% of the silica primary particles and 5 to 35 wt% of the amorphous aluminosilicate primary particles based on a total weight of the secondary particles, a number average primary particle diameter of the silica primary particles is 20 nm or more and 25 nm or less, a number average primary particle diameter of the amorphous aluminosilicate primary particles is 20 nm or more and 25 nm or less, and the average particle diameter of the secondary particles is 25 μ m or or less, wherein the particle diameters are determined according to the description: [Chemical Formula 1] M x/n [(AlO 2) x,(SiO 2) y]· m(H 2 O) wherein, in Chemical Formula 1, M is an element selected from the group consisting of Li, Na, K, Rb, Cs, Be, and Fr, or ions thereof; x> 0, y > 0, n > 0, and m ≥ 0; 1.0 ≤ y / x ≤ 10.0; and 0.01 ≤ x / n ≤ 1.2.
A method of determining status of fullness associated with a canister of a topical negative pressure system, comprising the steps of: monitoring pressure provided by a pump element (44, 248) of the TNP system; determining at least one characteristic associated with the monitored pressure; determining status of fullness associated with the canister (22, 204) of the TNP system responsive to the determined characteristics; wherein said method is characterized in that said pump element comprises a diaphragm member and said step of determining status of fullness associated with the canister comprises determining a frequency associated with pulses of pressure generated by the diaphragm member. monitoring pressure provided by a pump element (44, 248) of the TNP system; determining at least one characteristic associated with the monitored pressure; determining status of fullness associated with the canister (22, 204) of the TNP system responsive to the determined characteristics; wherein said method is characterized in that said pump element comprises a diaphragm member and said step of determining status of fullness associated with the canister comprises determining a frequency associated with pulses of pressure generated by the diaphragm member.
A needleless injection device including: - a body forming a housing which is delimited by a tubular wall and which extends axially from an upper radial seat, - a gas generator, - a tubular reservoir which contains an active ingredient and which extends axially into said housing from an upper end forming an upper collar, to a lower end, - an elastically-deformable diaphragm with a T-like general shape, which comprises a radial annular disk which is axially interposed between the upper collar of the reservoir and said seat formed by the body, and a tubular portion which extends axially into the reservoir, from the annular disk, and - a nozzle for injecting the active ingredient which is arranged at the lower end of the reservoir, characterized in that it includes an annular washer which is axially interposed between the annular disk of the diaphragm and the upper collar of the reservoir, and which extends radially generally up to the tubular wall of the housing of the body, so as to limit the axial creeping of the disk of the diaphragm between the reservoir and the tubular wall of said housing, when the disk of the diaphragm is axially compressed. - a body forming a housing which is delimited by a tubular wall and which extends axially from an upper radial seat, - a gas generator, - a tubular reservoir which contains an active ingredient and which extends axially into said housing from an upper end forming an upper collar, to a lower end, - an elastically-deformable diaphragm with a T-like general shape, which comprises a radial annular disk which is axially interposed between the upper collar of the reservoir and said seat formed by the body, and a tubular portion which extends axially into the reservoir, from the annular disk, and - a nozzle for injecting the active ingredient which is arranged at the lower end of the reservoir,
An apparatus for managing a plurality of network objects in a heterogeneous network, the apparatus comprising: a central processing unit that receives, using a first protocol communicated using a communications protocol, a network management request to manage a network object in the heterogeneous network, and that transmits, according to a second protocol that is different than the first protocol, the network management request to the network object, and a memory that stores a network object list comprising, for each of the network objects, network management information associated with the network object, wherein the central processing unit transmits the network management request to the network object based on the network management information stored in the object list, wherein the central processing unit is configured to determine whether the network management request comprises a request for communicating with the network object or a request for managing the network object list, wherein if the network management request is a request for managing the network object list, the central processing unit manages the network object list according to the network management request. a central processing unit that receives, using a first protocol communicated using a communications protocol, a network management request to manage a network object in the heterogeneous network, and that transmits, according to a second protocol that is different than the first protocol, the network management request to the network object, and a memory that stores a network object list comprising, for each of the network objects, network management information associated with the network object, wherein the central processing unit transmits the network management request to the network object based on the network management information stored in the object list, wherein the central processing unit is configured to determine whether the network management request comprises a request for communicating with the network object or a request for managing the network object list, wherein if the network management request is a request for managing the network object list, the central processing unit manages the network object list according to the network management request.
A compliant home care article 10, comprising: a cleansing composition 14 having a first side 18 and a second side 20; a first substrate 22 adjacent to the first side 18 of the cleansing composition 14; a second substrate 24 adjacent to the second side 20 of the cleansing composition 14; a first water insoluble substrate 26 adjacent to the first substrate 22, and a second water insoluble substrate 28 adjacent to the second substrate 24; characterized in that the composition has a compliance of 0.01 kg/mm to 1.5 kg/mm. a cleansing composition 14 having a first side 18 and a second side 20; a first substrate 22 adjacent to the first side 18 of the cleansing composition 14; a second substrate 24 adjacent to the second side 20 of the cleansing composition 14; a first water insoluble substrate 26 adjacent to the first substrate 22, and a second water insoluble substrate 28 adjacent to the second substrate 24;
A method of automatic transmit power control in a radio communication system employing a co-channel dual-polarized radio link between a first radio station and a second radio station, the method comprising: - receiving a horizontal polarized signal and a vertical polarized signal transmitted from said second radio station to said first radio station; in said first radio station: - estimating a received power level value, P Rx H, from said received horizontal polarized signal, and a received power level value, P Rx V, from said received vertical polarized signal; - determining a cross polarization interference level value, XPI H, from said received horizontal polarized signal, and a cross polarization interference level value, XPI V, from said received vertical polarized signal; - determining (405,406,407,408) power corrections values Δ P Tx H and Δ P Tx V; - transmitting (405,406,407,408) said determined power corrections values to said second radio station using a service channel; - adjusting transmit power of said second radio station based on received said power corrections values; characterized in that said determining of said power correction values are independently determined from said estimated received power level values and a target power value, PW TG, under a condition that said power correction values do not exceed a cross polarization interference threshold level value, XPI TH, wherein said cross polarization interference threshold level value based on said cross polarization interference level values and said power corrections values. - receiving a horizontal polarized signal and a vertical polarized signal transmitted from said second radio station to said first radio station; in said first radio station: - estimating a received power level value, P Rx H, from said received horizontal polarized signal, and a received power level value, P Rx V, from said received vertical polarized signal; - determining a cross polarization interference level value, XPI H, from said received horizontal polarized signal, and a cross polarization interference level value, XPI V, from said received vertical polarized signal; - determining (405,406,407,408) power corrections values Δ P Tx H and Δ P Tx V; - transmitting (405,406,407,408) said determined power corrections values to said second radio station using a service channel; - estimating a received power level value, P Rx H, from said received horizontal polarized signal, and a received power level value, P Rx V, from said received vertical polarized signal; - determining a cross polarization interference level value, XPI H, from said received horizontal polarized signal, and a cross polarization interference level value, XPI V, from said received vertical polarized signal; - determining (405,406,407,408) power corrections values Δ P Tx H and Δ P Tx V; - transmitting (405,406,407,408) said determined power corrections values to said second radio station using a service channel; - adjusting transmit power of said second radio station based on received said power corrections values;
A processing facility constructed at least in part by coupling first, second and third process blocks (402, 602, 404, 604, 406, 606), wherein at least t truckable modules (408, 410, 412, 414, 608, 610, 614, 616) are used to collectively compose the process blocks (402, 602, 404, 604, 606, 406), wherein t is at least four, and wherein at least some of the modules (408, 410, 412, 414, 608, 610, 614, 616) within at least some of the blocks (402, 404, 602, 604) are fluidly and electrically coupled to at least another one of the modules (408, 410, 412, 414, 608, 610, 614, 616) using direct-module to-module connections; wherein the first process block (402, 602) is configured to carry out a first process, and includes at least first (408, 608) and second (410, 610) modules, and the second (404, 604) process block is configured to carry out a second process different from the first process, and includes at least third (414, 616) and fourth (412, 614) modules; wherein the first module (408, 608) is abutted against the second module (410, 610) at a first side-to-side edge interface such that a person could walk directly from within the first module to within the second module; and wherein the first module (408, 608) is fluidly and electrically coupled to the second module (410, 610) across the side-to-side edge interface; and wherein the second module (410, 610) is further abutted against the third module (414, 616) at an end-to-end edge interface such that a person could walk directly from within the second module (410, 610) to within the third module (414, 616); and wherein the second module (410, 610) is fluidly coupled with the third module (414, 616) across the end-to-end edge interface.
A wire array rubber connector (10; 11), comprising: an electrical insulating rubber (2;5); and a plurality of conductive metal wires (1;4;14) that are arrayed in a thickness direction of the electrical insulating rubber so as to pass through front and back surfaces of the electrical insulating rubber, characterised in that: the electrical insulating rubber is a flame-resistant urethane rubber cured by heating and a flame-resistant rubber achieving V-0 based on a UL-94 standard; the plurality of conductive metal wires are localized so as to be electrically connectable to electrical terminals that are disposed at predetermined positions on the front and back surfaces of the electrical insulating rubber; and a positioning hole or a positioning recess (3;6) is formed in a rubber portion on the front and/or back surfaces of the wire array rubber connector. an electrical insulating rubber (2;5); and a plurality of conductive metal wires (1;4;14) that are arrayed in a thickness direction of the electrical insulating rubber so as to pass through front and back surfaces of the electrical insulating rubber, the electrical insulating rubber is a flame-resistant urethane rubber cured by heating and a flame-resistant rubber achieving V-0 based on a UL-94 standard; the plurality of conductive metal wires are localized so as to be electrically connectable to electrical terminals that are disposed at predetermined positions on the front and back surfaces of the electrical insulating rubber; and a positioning hole or a positioning recess (3;6) is formed in a rubber portion on the front and/or back surfaces of the wire array rubber connector.
A device comprising a container and an ultrasonic converter for measuring the level of a liquid according to the ultrasonic echo principle in the container, wherein the ultrasonic converter is arranged in a housing at a distance from a reflective surface and, on the one hand, is designed for radiating toward the liquid surface and, on the other hand, toward the reflective surface, wherein the reflective surface is arranged below the ultrasonic converter in the base of the container for a reference measurement between the ultrasonic converter and the reflective surface, wherein the ultrasonic converter is mounted with a flange assembly with a sealing ring in an opening on the lower face of the container, characterised in that the reflective surface has/is a channel-like reflective recess in the base of the container, so that the liquid flows through, in that the flange assembly comprises a mounting surface for the housing of the ultrasonic converter and in that the channel-like reflective recess is arranged below the mounting surface.
Digital microscope having an objective, a zoom assembly and an image-capturing device, wherein the image-capturing device comprises: - a camera sensor, - an optical unit for imaging a sample in an image plane on the camera sensor, said optical unit comprising at least one lens group which is mounted so as to be movable perpendicularly with respect to the optical axis, - a moving device with a first drive for the relative movement of at least one part of the lens group (24,) and thus for the relative movement of the imaging of the sample on the camera sensor parallel to the image plane, wherein the moving device is a monolithic base body having a two-axis system, of which the central platform is movable, and in the periphery of which the first drive and a second drive are mounted, wherein two flexure bearings are formed between the central platform and the periphery, and wherein in the periphery in an actuator area contact surfaces for the drive are formed; wherein the central platform forms a lens mount in which the movably mounted part of the lens group is mounted and wherein the lens group is integrated in the zoom assembly of the digital microscope and the digital microscope is configured to move the lens mount in order to carry out a pixel shift with the moving device. - a camera sensor, - an optical unit for imaging a sample in an image plane on the camera sensor, said optical unit comprising at least one lens group which is mounted so as to be movable perpendicularly with respect to the optical axis, - a moving device with a first drive for the relative movement of at least one part of the lens group (24,) and thus for the relative movement of the imaging of the sample on the camera sensor parallel to the image plane, wherein the moving device is a monolithic base body having a two-axis system, of which the central platform is movable, and in the periphery of which the first drive and a second drive are mounted, wherein two flexure bearings are formed between the central platform and the periphery, and wherein in the periphery in an actuator area contact surfaces for the drive are formed;
Heater assembly for use in a domestic appliance, comprising a main part being generally cup-shaped and having an open side, and a cover part which is fixedly connected to the main part for covering the open side of the main part, the main part and the cover part enclosing a heater space for receiving fluid to be heated in the heater assembly, and the main part and the cover part being sealingly coupled to each other in a sealing area which is at a position for surrounding the heater space, characterized in that, at a position which is more to the outside of the heater assembly than the sealing area, as seen from the heater space, the heater assembly is provided with at least one safety opening (22, 23) for allowing fluidum from the heater space to flow therethrough in a forced safety condition of the heater assembly in which condition at least one fluidum passage is present between the main part and the cover part in the sealing area.
A composite powder comprising: infrared-ray blocking particles; and ultraviolet-ray blocking particles coated onto one surface of each of the infrared-ray blocking particles by a mechanical coating method, wherein a weight ratio of the ultraviolet-ray blocking particle to the infrared-ray blocking particle is 1:99 ∼ 99:1, wherein a diameter of the infrared-ray blocking particle is within the range of 0.38 ~ 1.5μm; a diameter of the ultraviolet-ray blocking particle is within the range of 8 ~ 150nm, wherein the ultraviolet-ray blocking particles are coated onto the entire surface of the infrared-ray blocking particle, wherein the ultraviolet-ray blocking particles are coated onto the surface of the infrared-ray blocking particle by compression-sharing dry powder compounding method while penetrating into the inside of the infrared-ray blocking particle. infrared-ray blocking particles; and ultraviolet-ray blocking particles coated onto one surface of each of the infrared-ray blocking particles by a mechanical coating method, wherein a weight ratio of the ultraviolet-ray blocking particle to the infrared-ray blocking particle is 1:99 ∼ 99:1, wherein a diameter of the infrared-ray blocking particle is within the range of 0.38 ~ 1.5μm; a diameter of the ultraviolet-ray blocking particle is within the range of 8 ~ 150nm,