mhurhangee/patent-ind-claim-en huggingface dataset:
Arrangement which has at least the following: - a first printed circuit board which has at least one first electrical contact region ; - a second printed circuit board which has at least one second electrical contact region and a third electrical contact region that are electrically conductively connected to one another via a conductor track of the second printed circuit board ; - a printed circuit board connector for electrically connecting the first contact region to the second contact region in order to transmit electrical energy with high current intensities, wherein - the printed circuit board connector has at least one metallic, integral pin contact (1, 1', 1"), which is a solid rotational part which is suitable for transmitting current intensities of more than 10 Amperes, wherein - the pin contact (1, 1', 1") has, at a first end, a connection region with which it can be soldered to the first contact region of the first printed circuit board and/or can be pressed into the first printed circuit board at the first contact region , and wherein - the pin contact has opposite, at a second end, a plug-in region having a slot running in the direction of the first end for mechanical fixing and for electrical contact connection of at least one second contact region arranged at the edge of a second printed circuit board , - wherein the slot has a constant width which corresponds to the thickness of the second printed circuit board. - a first printed circuit board which has at least one first electrical contact region ; - a second printed circuit board which has at least one second electrical contact region and a third electrical contact region that are electrically conductively connected to one another via a conductor track of the second printed circuit board ; - a printed circuit board connector for electrically connecting the first contact region to the second contact region in order to transmit electrical energy with high current intensities, wherein - the printed circuit board connector has at least one metallic, integral pin contact (1, 1', 1"), which is a solid rotational part which is suitable for transmitting current intensities of more than 10 Amperes, wherein - the pin contact (1, 1', 1") has, at a first end, a connection region with which it can be soldered to the first contact region of the first printed circuit board and/or can be pressed into the first printed circuit board at the first contact region , and wherein - the pin contact has opposite, at a second end, a plug-in region having a slot running in the direction of the first end for mechanical fixing and for electrical contact connection of at least one second contact region arranged at the edge of a second printed circuit board , - wherein the slot has a constant width which corresponds to the thickness of the second printed circuit board.
A self-sealing fastener comprising: a shank extending longitudinally between a first end and a second end , said shank having an outer surface ; a head extending radially outwardly from said first end of said shank , said head having an underside surface adjacent to said first end of said shank and a topside surface opposite said underside surface ; and a mastic sealant disposed on at least one of said outer surface of said shank and said underside surface of said head for providing a water-tight seal after installation of the self-sealing fastener ; wherein said mastic sealant includes a first sealant layer and a second sealant layer , wherein said first sealant layer directly contacts at least one of said outer surface of said shank and said underside surface of said head , and wherein said second sealant layer is disposed on said first sealant layer and said mastic sealant in said first sealant layer has a first sealant layer thickness and said second sealant layer has a second sealant layer thickness that equals 25 to 50 percent of the first sealant layer thickness. a shank extending longitudinally between a first end and a second end , said shank having an outer surface ; a head extending radially outwardly from said first end of said shank , said head having an underside surface adjacent to said first end of said shank and a topside surface opposite said underside surface ; and a mastic sealant disposed on at least one of said outer surface of said shank and said underside surface of said head for providing a water-tight seal after installation of the self-sealing fastener ; wherein said mastic sealant includes a first sealant layer and a second sealant layer , wherein said first sealant layer directly contacts at least one of said outer surface of said shank and said underside surface of said head , and wherein said second sealant layer is disposed on said first sealant layer and said mastic sealant in said first sealant layer has a first sealant layer thickness and said second sealant layer has a second sealant layer thickness that equals 25 to 50 percent of the first sealant layer thickness.
Intumescent fire sleeve for a conduit penetrating a wall , a ceiling or a floor in a building, said fire sleeve comprising at least one layer of intumescent material and one carrier being connected to the layer of intumescent material, and said fire sleeve having a length (L) that at least corresponds to a circumference of the conduit for which it is intended, characterized in that the carrier is made of at least one wire having spring-loaded characteristics and that the carrier , in a non-applied position, has the ability to coil onto itself in a spiral manner whereby two spring-loaded wires are incorporated into two canals running in lengthwise direction of the layer or whereby the wire runs lengthwise on a surface of the layer and is covered by a coverage fixed to the layer or whereby two wires are fixed to parallel side surfaces of the layer .
An optical waveguide body , comprising: a first layer of optically transmissive material comprising a thickness defined by a first major surface and an opposite second major surface ; a second layer of optically transmissive material defined by a third inner surface and a fourth outer surface opposite the third surface ; said third surface being in contact with the second surface of the first layer ; wherein the second layer comprises a plurality of ridges and troughs disposed on the fourth surface thereof; and wherein the first layer has a first index of refraction and the second layer has a second index of refraction less than the first index of refraction and wherein the first and second indices of refraction are both greater than about 1.0; wherein the first surface and fourth surface are tapered toward one another and wherein the light is directed out of the fourth surface , characterized in that the first and second layers have a non-planar interface; a first part of the second layer extends into the first layer and a second part of the second layer extends away from the first layer . a first layer of optically transmissive material comprising a thickness defined by a first major surface and an opposite second major surface ; a second layer of optically transmissive material defined by a third inner surface and a fourth outer surface opposite the third surface ; said third surface being in contact with the second surface of the first layer ; wherein the second layer comprises a plurality of ridges and troughs disposed on the fourth surface thereof; and wherein the first layer has a first index of refraction and the second layer has a second index of refraction less than the first index of refraction and wherein the first and second indices of refraction are both greater than about 1.0; wherein the first surface and fourth surface are tapered toward one another and wherein the light is directed out of the fourth surface , characterized in that the first and second layers have a non-planar interface; a first part of the second layer extends into the first layer and a second part of the second layer extends away from the first layer .
A mass flow meter for measuring a flow of a fluid, the mass flow meter comprising: an inlet for receiving the fluid; a mass flow sensor for providing a signal corresponding to mass flow of the fluid through the mass flow meter ; a bypass (142; 720) coupled to the mass flow sensor through which a majority of fluid flows; characterized by a turning vane (200; 700; 800; 1000) positioned upstream of the bypass (142; 720) for generating a more uniform fluid flow, wherein the turning vane (200; 700; 800; 1000) comprises at least one vane coupled to a flow mixer , wherein the flow mixer abuts an inlet screen of the bypass (142; 720), wherein the at least one vane (200; 700; 800; 1000) comprises upstream a flat section extending parallel to the longitudinal axis of the bypass (142; 720) and downstream of it a curved section connected to the flow mixer extending perpendicular to said longitudinal axis. an inlet for receiving the fluid; a mass flow sensor for providing a signal corresponding to mass flow of the fluid through the mass flow meter ; a bypass (142; 720) coupled to the mass flow sensor through which a majority of fluid flows; characterized by a turning vane (200; 700; 800; 1000) positioned upstream of the bypass (142; 720) for generating a more uniform fluid flow, wherein the turning vane (200; 700; 800; 1000) comprises at least one vane coupled to a flow mixer , wherein the flow mixer abuts an inlet screen of the bypass (142; 720), wherein the at least one vane (200; 700; 800; 1000) comprises upstream a flat section extending parallel to the longitudinal axis of the bypass (142; 720) and downstream of it a curved section connected to the flow mixer extending perpendicular to said longitudinal axis.
A composite comprising: a silicon oxycarbide-based material having Si, O, and C in a covalently bonded network, the silicon oxycarbide-based material having a surface; and a calcium-magnesium alumino-silicate-based material interfaced with the surface of the silicon oxycarbide-based material. a silicon oxycarbide-based material having Si, O, and C in a covalently bonded network, the silicon oxycarbide-based material having a surface; and a calcium-magnesium alumino-silicate-based material interfaced with the surface of the silicon oxycarbide-based material.
A gas concentration measuring apparatus comprising: a gas concentration sensor equipped with a sensor element which is made of a solid electrolyte body and a pair of electrodes affixed to the solid electrolyte body ; a sensor control circuit connected to the electrodes of the sensor element through a positive (T1) and a negative terminal (T2), wherein, in a gas concentration measuring mode, said sensor control circuit is adapted to apply a voltage across the electrodes of the sensor element within a given applied-voltage control range to produce a flow of electrical current (Ip) through the sensor element , and to sample the electrical current (Ip) to output a sensor current signal (AFO) as indicating a concentration of a gas to be measured, and said sensor control circuit is also adapted to sample voltages (VS+, VS-) appearing at the positive (T1) and negative terminals (T2); and a failure monitor adapted to monitor a failure in said gas concentration sensor, wherein, when the voltages (VS+, VS-) at the positive (T1) and negative terminals (T2), as sampled by said sensor control circuit, are identical with each other (S502), one of the voltages (VS+, VS-) at the positive (T1) and negative terminals (T2) lies within the applied-voltage control range (S504), and the sensor current signal (AFO) has an unusual value (S503), said failure monitor is adapted to determine that an electrical short has occurred between the positive (T1) and negative terminals (T2) (S505). a gas concentration sensor equipped with a sensor element which is made of a solid electrolyte body and a pair of electrodes affixed to the solid electrolyte body ; a sensor control circuit connected to the electrodes of the sensor element through a positive (T1) and a negative terminal (T2), wherein, in a gas concentration measuring mode, said sensor control circuit is adapted to apply a voltage across the electrodes of the sensor element within a given applied-voltage control range to produce a flow of electrical current (Ip) through the sensor element , and to sample the electrical current (Ip) to output a sensor current signal (AFO) as indicating a concentration of a gas to be measured, and said sensor control circuit is also adapted to sample voltages (VS+, VS-) appearing at the positive (T1) and negative terminals (T2); and a failure monitor adapted to monitor a failure in said gas concentration sensor, wherein, when the voltages (VS+, VS-) at the positive (T1) and negative terminals (T2), as sampled by said sensor control circuit, are identical with each other (S502), one of the voltages (VS+, VS-) at the positive (T1) and negative terminals (T2) lies within the applied-voltage control range (S504), and the sensor current signal (AFO) has an unusual value (S503), said failure monitor is adapted to determine that an electrical short has occurred between the positive (T1) and negative terminals (T2) (S505).
A cleaning device for bag filters, comprising a cleaning head connected to a pressure medium source by means of a pressure medium hose and comprising a cleaning hole (27.1) which can be set in rotation about a main axis of the cleaning head and through which pressure medium emerges, and comprising a control device for controlling operating parameters, the cleaning head being connected by means of a drive shaft to a drive device which sets the cleaning hole (27.1) in rotation, the control device also controlling the drive device , characterized in that the drive shaft is flexible in form.
An electronic control device, comprising: a resin base having at least one opening part; a first resin cover (13 1 ) fixed on an inner surface of the resin base forming a first opening part (OP1) and formed in a cylindrical shape having a bottom and a first slit ; a substrate having a first connector (12a1) inserted into the first slit and accessible from the outside ; and an electronic component mounted on the substrate characterized in that a stepped part configured to contact a sealing member formed on an external female connector is formed by an edge, at a distal end, of the first resin cover (13 1 ) and an inner surface of the resin base forming the first opening part (OP1), and a distance D1 between a bottom part of the first resin cover and the edge of the first resin cover (13 1 ) is shorter than a distance D2 between the bottom part of the first resin cover (13 1 ) and an edge of the resin base . a resin base having at least one opening part; a first resin cover (13 1 ) fixed on an inner surface of the resin base forming a first opening part (OP1) and formed in a cylindrical shape having a bottom and a first slit ; a substrate having a first connector (12a1) inserted into the first slit and accessible from the outside ; and an electronic component mounted on the substrate characterized in that a stepped part configured to contact a sealing member formed on an external female connector is formed by an edge, at a distal end, of the first resin cover (13 1 ) and an inner surface of the resin base forming the first opening part (OP1), and a distance D1 between a bottom part of the first resin cover and the edge of the first resin cover (13 1 ) is shorter than a distance D2 between the bottom part of the first resin cover (13 1 ) and an edge of the resin base .
Blow molding tool for a blow molding machine, comprising two blow mold halves , each having at least one molding body in which at least one mold cavity is arranged, and a baseplate receiving the molding body , wherein an insulation block made of a thermally insulating material is arranged between the molding body and the baseplate and, optionally, further components of the blow mold half , characterized in that the molding body has a rear side embedded in the insulation block and provided with channels for the flow of a heating/cooling medium.
A refrigerating appliance comprising: a cabinet having an inner liner , an outer wrapper and a plastic trim breaker extending therebetween, the cabinet defining a machine compartment ; a door panel that is selectively operable relative to the cabinet between an open position and a closed position , a seal of the door panel engaging a contact surface of the cabinet in the closed position , the seal having a magnetic member disposed within the seal ; a ferromagnetic plate that extends over a portion of the plastic trim breaker to define the contact surface , wherein the magnetic member magnetically engages the ferromagnetic plate to selectively retain the seal against the contact surface to define the closed position ; wherein a heat loop is disposed between the trim breaker and the ferromagnetic plate and in thermal communication with the contact surface , wherein the heat loop extends from the trim breaker to the machine compartment , wherein the trim breaker includes a recessed channel defined within an edge surface of the trim breaker and the heat loop is positioned within the recessed channel and characterised in that the ferromagnetic plate includes a looped edge that extends at least partially into the recessed channel . a cabinet having an inner liner , an outer wrapper and a plastic trim breaker extending therebetween, the cabinet defining a machine compartment ; a door panel that is selectively operable relative to the cabinet between an open position and a closed position , a seal of the door panel engaging a contact surface of the cabinet in the closed position , the seal having a magnetic member disposed within the seal ; a ferromagnetic plate that extends over a portion of the plastic trim breaker to define the contact surface , wherein the magnetic member magnetically engages the ferromagnetic plate to selectively retain the seal against the contact surface to define the closed position ; wherein a heat loop is disposed between the trim breaker and the ferromagnetic plate and in thermal communication with the contact surface , wherein the heat loop extends from the trim breaker to the machine compartment , wherein the trim breaker includes a recessed channel defined within an edge surface of the trim breaker and the heat loop is positioned within the recessed channel and characterised in that the ferromagnetic plate includes a looped edge that extends at least partially into the recessed channel .
An ophthalmic formulation comprising a self-forming thermodynamically stable liposome and a pharmaceutically effective amount of a corticosteroid for use in the treatment of a posterior segment disease, wherein the treatment comprises topical administration of the formulation to the eye of a patient in need of treatment thereof.
Multibeam antenna with adjustable pointing, comprising a single reflection arrangement and a plurality of radiating sources (22; 122) arranged opposite the reflection arrangement and suited to emit and/or receive radiofrequency (RF) signals, the reflection arrangement comprising on or several reflectors, the reflection arrangement defining a centre, a focal plane (PF), and a focal point located on the focal plane (PF); and at least one of the radiating sources (22; 122), named mobile source, is movable substantially independently of the or each other radiating source on a scanning area to adjust the pointing of the antenna , wherein the scanning area coincides with the focal plane (PF) or is tangential to it at the focal point, the antenna being characterized in that the movable source (22; 122) is movable within the scanning area according to at least two degrees of freedom, each of the two degrees of freedom comprising rotation about an axis, one of which axes being the primary axis of rotation (X 1 ) and the other being the secondary axis of rotation (X 2 ), the antenna further including, for the/each movable source (22 ; 122), a support fixed on a baseplate and comprising an upper arm (26; 126) that rotates about the primary axis of rotation (X 1 ) of the corresponding movable source (22; 122) and an arm (28; 128) that rotates about the secondary axis of rotation (X 2 ) of the corresponding movable source (22; 122) and defines a mounting end of the movable source (22; 122). and at least one of the radiating sources (22; 122), named mobile source, is movable substantially independently of the or each other radiating source on a scanning area to adjust the pointing of the antenna , wherein the scanning area coincides with the focal plane (PF) or is tangential to it at the focal point, the antenna being characterized in that the movable source (22; 122) is movable within the scanning area according to at least two degrees of freedom, each of the two degrees of freedom comprising rotation about an axis, one of which axes being the primary axis of rotation (X 1 ) and the other being the secondary axis of rotation (X 2 ), the antenna further including, for the/each movable source (22 ; 122), a support fixed on a baseplate and comprising an upper arm (26; 126) that rotates about the primary axis of rotation (X 1 ) of the corresponding movable source (22; 122) and an arm (28; 128) that rotates about the secondary axis of rotation (X 2 ) of the corresponding movable source (22; 122) and defines a mounting end of the movable source (22; 122).
Electric oven, comprising: a cavity; a sensor positioned at any point in the cavity for detecting a temperature, a key manipulation unit configured to manipulate the electric oven; a controller configured to control the temperature in the cavity of the electric oven to a set temperature according to a signal of the key manipulation unit ; and at least one heater configured to be operated at a predetermined heating on/off cycle by means of the controller , the heating on/off cycle includes a heater-on time and a heater-off time, wherein the at least one heater is configured to be operated with a variable heating on/off cycle, wherein a heater-on time in the heating on/off cycle of the heater is configured to be changed at a predetermined period by comparing a current temperature sensed by the sensor in the cavity with the set temperature inputted by a user, wherein the heater-off time in the heating on/off cycle is fixed, the controller being further configured to adjust the heating on/off cycle such that after the at least one heater operates for a current cycle period with a current heating on/off cycle, the controller operates the at least one heater with a new heating on/off cycle by adjusting the heater on-time of the current heating on/off cycle based on a difference between a current temperature in the cavity and the set temperature, the least one heater operates with the new heating on/off cycle in a next cycle period. a cavity; a sensor positioned at any point in the cavity for detecting a temperature, a key manipulation unit configured to manipulate the electric oven; a controller configured to control the temperature in the cavity of the electric oven to a set temperature according to a signal of the key manipulation unit ; and at least one heater configured to be operated at a predetermined heating on/off cycle by means of the controller , the heating on/off cycle includes a heater-on time and a heater-off time, wherein the at least one heater is configured to be operated with a variable heating on/off cycle, wherein a heater-on time in the heating on/off cycle of the heater is configured to be changed at a predetermined period by comparing a current temperature sensed by the sensor in the cavity with the set temperature inputted by a user, wherein the heater-off time in the heating on/off cycle is fixed, the controller being further configured to adjust the heating on/off cycle such that after the at least one heater operates for a current cycle period with a current heating on/off cycle, the controller operates the at least one heater with a new heating on/off cycle by adjusting the heater on-time of the current heating on/off cycle based on a difference between a current temperature in the cavity and the set temperature, the least one heater operates with the new heating on/off cycle in a next cycle period.