mhurhangee/ep-ind-claims huggingface dataset:
A solar panel module, comprising: - a solar cell panel; - a wiring box electrically connected to the solar cell panel and mounted on or at a back surface of the solar cell panel, - wherein the wiring box comprises a case having an inner space and a circuit portion positioned inside the case, - wherein the case comprises a first case portion, a second case portion to seal the inner space, - wherein the case comprises a through hole being formed on the first case portion; and - an adhesive member disposed between a front surface of the first case portion and the back surface of the solar cell panel to attach the wiring box and the solar cell panel, - wherein an air gap opened to an outside and having a thickness corresponding to a thickness of the adhesive member is provided between the solar cell panel and the wiring box by the adhesive member, characterized in that - the adhesive member comprises a first adhesive member having an open end to form the air gap between the wiring box and the solar cell panel, and a second adhesive member having a closed space surrounding the through hole, and which is spaced apart from the first adhesive member, and - wherein a space between the first adhesive member and the second adhesive member is an air flow path adapted to allow air to flow through the air flow path. - a solar cell panel; - a wiring box electrically connected to the solar cell panel and mounted on or at a back surface of the solar cell panel, - wherein the wiring box comprises a case having an inner space and a circuit portion positioned inside the case, - wherein the case comprises a first case portion, a second case portion to seal the inner space, - wherein the case comprises a through hole being formed on the first case portion; and - an adhesive member disposed between a front surface of the first case portion and the back surface of the solar cell panel to attach the wiring box and the solar cell panel, - wherein an air gap opened to an outside and having a thickness corresponding to a thickness of the adhesive member is provided between the solar cell panel and the wiring box by the adhesive member, characterized in that - the adhesive member comprises a first adhesive member having an open end to form the air gap between the wiring box and the solar cell panel, and a second adhesive member having a closed space surrounding the through hole, and which is spaced apart from the first adhesive member, and - wherein a space between the first adhesive member and the second adhesive member is an air flow path adapted to allow air to flow through the air flow path.
Method for producing an electromechanical switch by means of a leadframe (30, 40), wherein the switch comprises contacts for contacting a printed circuit board, characterized in that at least one resistance is arranged between the contacts (7a, 7b, and 7c) as a measuring resistance, wherein switch blanks are arranged in a first leadframe, while electrical resistances are arranged as measuring resistances in a second leadframe, wherein the leadframes are arranged relative to one another by positioning aids (36, 46, 58), so that the mounting of the at least one resistance as well as separation of the resistance from the leadframe is then carried out.
Method of manufacturing a relative humidity sensor comprising the steps of: a) providing a bottom substrate, b) providing a first electrode and electrical connection means on or over the substrate, c) providing an insulating layer to electrically isolate the first electrode from the electrical connection means, d) providing a porous alumina dielectric layer over the insulating layer in the area of the first electrode by depositing an aluminum layer on the insulating layer and growing the porous alumina layer by electrolytic growth, and e) providing a porous second electrode in or over the porous dielectric layer by depositing a conductive layer by grazing incidence deposition and electrically connecting the second electrode to the electrical connection means. a) providing a bottom substrate, b) providing a first electrode and electrical connection means on or over the substrate, c) providing an insulating layer to electrically isolate the first electrode from the electrical connection means, d) providing a porous alumina dielectric layer over the insulating layer in the area of the first electrode by depositing an aluminum layer on the insulating layer and growing the porous alumina layer by electrolytic growth, and e) providing a porous second electrode in or over the porous dielectric layer by depositing a conductive layer by grazing incidence deposition and electrically connecting the second electrode to the electrical connection means.
A sanitary tub support system with a support frame having a supporting profile and with a seal arranged sealingly on a holding leg of the supporting profile, characterised in that the holding leg has at least one profile groove in which the seal is held in a detachable form fit with a protrusion.
Current-measuring circuit for redundantly measuring an electric current, having a measuring resistor, a magnetic-field sensor and an evaluation circuit on an evaluation-circuit printed circuit board for determining the electric current using the measuring resistor, characterized in that the magnetic-field sensor on the evaluation-circuit printed circuit board and the evaluation-circuit printed circuit board are arranged in the immediate vicinity of the measuring resistor, with the result that the magnetic-field sensor can detect the magnetic field of the measuring resistor when current flows through it, wherein the magnetic-field sensor is designed to measure a magnetic field around the measuring resistor, which magnetic field is proportional to the flow of current.
Nanodiamond for use, in combination with an ionising radiation, as a medicament generating free radicals and intended for the destruction of target cells.
A braking system architecture for aircraft, the architecture comprising: • a brake (100; 200; 300; 400) for braking a wheel of an undercarriage of the aircraft, the brake including friction members and electromechanical actuators (103; 203; 303; 403) for applying a braking force against the friction members and thereby exerting a braking torque on the wheel; • a computer (101; 201; 301; 401) that can be situated in the fuselage of the aircraft and arranged to produce first control signals; and • a junction box (102; 202; 302; 402) that can situated on the undercarriage, the junction box being connected to the computer and to the electromechanical actuators, the junction box being arranged to receive the first control signals, the junction box comprising electrical processor means (105, 205, 305, 405, 605) arranged to use the first control signals to produce second control signals for application to the electromechanical actuators in order to control the electromechanical actuators, the first control signals and the second control signals being digital signal, each electromechanical actuator including a body having integrated therein an electric motor, a power module (108, 208, 308, 408, 608) for generating a power supply current for the electric motor, and a digital communication module (109, 209, 409, 609), the electrical processor means of the junction box including a digital switch. • a brake (100; 200; 300; 400) for braking a wheel of an undercarriage of the aircraft, the brake including friction members and electromechanical actuators (103; 203; 303; 403) for applying a braking force against the friction members and thereby exerting a braking torque on the wheel; • a computer (101; 201; 301; 401) that can be situated in the fuselage of the aircraft and arranged to produce first control signals; and • a junction box (102; 202; 302; 402) that can situated on the undercarriage, the junction box being connected to the computer and to the electromechanical actuators, the junction box being arranged to receive the first control signals, the junction box comprising electrical processor means (105, 205, 305, 405, 605) arranged to use the first control signals to produce second control signals for application to the electromechanical actuators in order to control the electromechanical actuators, each electromechanical actuator including a body having integrated therein an electric motor, a power module (108, 208, 308, 408, 608) for generating a power supply current for the electric motor, and a digital communication module (109, 209, 409, 609), the electrical processor means of the junction box including a digital switch.
A foldable electronic device module (100a, 100b, 100c), created by: disposing a cover element adjacent to a stack (90a, 90b, 90c) with a first adhesive therebetween to define a stacked module, wherein: (a) the cover element comprises a thickness from 25 μm to 200 μm, a cover element elastic modulus from 20 GPa to 140 GPa, a glass composition and first and second primary surfaces (54, 56), (b) the stack (90a, 90b, 90c) comprises a thickness (92a, 92b, 92c) from 50 μm to 600 μm and a panel having first and second primary surfaces (64, 66) and a panel elastic modulus between 300 MPa and 10 GPa, (c) the first adhesive has a shear modulus between 0.01 MPa and 1 GPa and a glass transition temperature of at least 80°C, and (d) the second primary surface of the cover element is adjacent to the first adhesive; bending the stacked module to a flex radius, R flex, to define a flexed module, wherein R flex is measured from above the stack (90a, 90b, 90c) to the second primary surface of the cover element; curing the first adhesive in the flexed module at the flex radius, R flex, to define a flex-bonded module; and returning the flex-bonded module to an un-bent configuration to define the foldable electronic device module (100a, 100b, 100c). disposing a cover element adjacent to a stack (90a, 90b, 90c) with a first adhesive therebetween to define a stacked module, wherein: (a) the cover element comprises a thickness from 25 μm to 200 μm, a cover element elastic modulus from 20 GPa to 140 GPa, a glass composition and first and second primary surfaces (54, 56), (b) the stack (90a, 90b, 90c) comprises a thickness (92a, 92b, 92c) from 50 μm to 600 μm and a panel having first and second primary surfaces (64, 66) and a panel elastic modulus between 300 MPa and 10 GPa, (c) the first adhesive has a shear modulus between 0.01 MPa and 1 GPa and a glass transition temperature of at least 80°C, and (d) the second primary surface of the cover element is adjacent to the first adhesive; (a) the cover element comprises a thickness from 25 μm to 200 μm, a cover element elastic modulus from 20 GPa to 140 GPa, a glass composition and first and second primary surfaces (54, 56), (b) the stack (90a, 90b, 90c) comprises a thickness (92a, 92b, 92c) from 50 μm to 600 μm and a panel having first and second primary surfaces (64, 66) and a panel elastic modulus between 300 MPa and 10 GPa, (c) the first adhesive has a shear modulus between 0.01 MPa and 1 GPa and a glass transition temperature of at least 80°C, and (d) the second primary surface of the cover element is adjacent to the first adhesive; bending the stacked module to a flex radius, R flex, to define a flexed module, wherein R flex is measured from above the stack (90a, 90b, 90c) to the second primary surface of the cover element; curing the first adhesive in the flexed module at the flex radius, R flex, to define a flex-bonded module; and returning the flex-bonded module to an un-bent configuration to define the foldable electronic device module (100a, 100b, 100c).
A composition comprising beautyberry total glycosides extract, containing 18% to 45% verbascoside and 15% to 40% Arenarioside based on weight, wherein the extract is prepared from leaves of Callicarpa cathayana H. T. Chang or Callicarpa formosana Rolfe.
An electronic device comprising: circuitry (151, 153) configured to allocate at least partially shared transmission parameters to at least a subset of a plurality of signals to which resource blocks are allocated, the resource blocks having at least partially overlapping frequency resources or time resources; and control a transmission process of the plurality of signals based on the shared transmission parameters; wherein the circuitry (151, 153) is configured to allocate the shared transmission parameters based on transmission parameters allocated to a signal selected from among the plurality of signals; wherein the circuitry (151, 153) is configured to select, as the selected signal, a signal having a lowest power level of a data channel among the plurality of signals. allocate at least partially shared transmission parameters to at least a subset of a plurality of signals to which resource blocks are allocated, the resource blocks having at least partially overlapping frequency resources or time resources; and control a transmission process of the plurality of signals based on the shared transmission parameters;
A method of a User Equipment, in the following also referred to as UE, comprising: the UE establishes at least three logical channels which includes at least a first logical channel, a second logical channel, and a third logical channel, wherein the first logical channel, the second logical channel, and the third logical channel are logical channels for forwarding user data to a same base station; wherein the UE is configured with periodic uplink resource by a base station, wherein the periodic uplink resource is associated with the first logical channel, which carries unexpected or aperiodically generated data, and the second logical channel, which carries periodically generated data, but is not associated with the third logical channel; the UE performs a first transmission via the periodic uplink resource, wherein the first transmission includes data from the first logical channel and/or data from the second logical channel, and the first transmission is not allowed to include data from the third logical channel; and the UE performs a second transmission via a dynamically scheduled resource when the UE is configured with the periodic uplink resource, wherein the dynamically scheduled resource is not associated with the second logical channel, and the second transmission is not allowed to include data from the second logical channel. the UE establishes at least three logical channels which includes at least a first logical channel, a second logical channel, and a third logical channel, wherein the first logical channel, the second logical channel, and the third logical channel are logical channels for forwarding user data to a same base station; wherein the UE is configured with periodic uplink resource by a base station, wherein the periodic uplink resource is associated with the first logical channel, which carries unexpected or aperiodically generated data, and the second logical channel, which carries periodically generated data, but is not associated with the third logical channel; the UE performs a first transmission via the periodic uplink resource, wherein the first transmission includes data from the first logical channel and/or data from the second logical channel, and the first transmission is not allowed to include data from the third logical channel; and the UE performs a second transmission via a dynamically scheduled resource when the UE is configured with the periodic uplink resource, wherein the dynamically scheduled resource is not associated with the second logical channel, and the second transmission is not allowed to include data from the second logical channel.
A system for administrating a package of shuffled playing cards, wherein a predetermined number of decks of playing cards are shuffled in a random order and individually packaged as one package, a unique ID code being attached to the package of each unique shuffled playing cards, the system having an ID code reader for being disposed at a game table configured to obtain the ID code of the packages at the game table to identify the package which will be used on the game table with a card dealing shoe, and an administrating controller for monitoring the ID code of the package of shuffled playing cards, having a computer readable medium that stores a data base of ID codes of the packages which have been brought into a backyard of a casino, wherein the administrating controller is configured to obtain the ID code of the package to be used on the game table by reading the ID code with the ID code reader and examine whether the ID code read on the game table is the one preliminarily being stored in the data base, characterized in that the administrating controller is further configured to examine whether or not the package to be used on the game table is the one which arrived at the backyard at appropriate timing.
A laser additive manufacturing, LAM, apparatus comprising: a. a laser configured to provide a functional laser beam along a beam path, the functional laser beam having a wavelength in the 400s nm or the 500s nm range; wherein the laser comprises a pump laser diode and a Raman oscillator fiber pumped by the pump laser diode; wherein the pump laser diode has a blue wavelength in the range of 405 nm to 495 nm or a wavelength of less than 500 nm; and the functional laser beam having an M 2 of less than 2, and a power of greater than 500 W; b. a build table; c. a starting material, and a starting material delivery apparatus, wherein the starting material can be delivered to a target area adjacent the build table; d. a laser beam delivery apparatus, comprising a beam shaping optic to provide a functional laser beam and form a laser beam spot; e. a motor and positioning apparatus, mechanically connected to the build table, the laser beam delivery apparatus, or both; whereby the motor and positioning apparatus are capable of providing relative movement between the laser beam delivery apparatus and the build table; and, f. a control system, the control system comprising a processor, a memory device and a LAM plan, wherein the control system is capable of implementing the LAM plan through the predetermined placement of the functional laser beam and the starting material. a. a laser configured to provide a functional laser beam along a beam path, the functional laser beam having a wavelength in the 400s nm or the 500s nm range; wherein the laser comprises a pump laser diode and a Raman oscillator fiber pumped by the pump laser diode; wherein the pump laser diode has a blue wavelength in the range of 405 nm to 495 nm or a wavelength of less than 500 nm; and the functional laser beam having an M 2 of less than 2, and a power of greater than 500 W; b. a build table; c. a starting material, and a starting material delivery apparatus, wherein the starting material can be delivered to a target area adjacent the build table; d. a laser beam delivery apparatus, comprising a beam shaping optic to provide a functional laser beam and form a laser beam spot; e. a motor and positioning apparatus, mechanically connected to the build table, the laser beam delivery apparatus, or both; whereby the motor and positioning apparatus are capable of providing relative movement between the laser beam delivery apparatus and the build table; and, f. a control system, the control system comprising a processor, a memory device and a LAM plan, wherein the control system is capable of implementing the LAM plan through the predetermined placement of the functional laser beam and the starting material.
A seating arrangement comprising: at least one aisle column comprising at least one high bed seating unit and at least one low bed seating unit; and at least one non-aisle column comprising at least one high bed seating unit and at least one low bed seating unit; wherein the at least one high bed seating unit in the at least one aisle column in the bed position is positioned laterally proximate and laterally partially overlapping the at least one low bed seating unit in the at least one non-aisle column in the bed position; and wherein the at least one low bed seating unit in the at least one aisle column in the bed position is positioned laterally proximate and laterally partially overlapping the at least one high bed seating unit the at least one non-aisle column in the bed position. at least one aisle column comprising at least one high bed seating unit and at least one low bed seating unit; and at least one non-aisle column comprising at least one high bed seating unit and at least one low bed seating unit; wherein the at least one high bed seating unit in the at least one aisle column in the bed position is positioned laterally proximate and laterally partially overlapping the at least one low bed seating unit in the at least one non-aisle column in the bed position; and wherein the at least one low bed seating unit in the at least one aisle column in the bed position is positioned laterally proximate and laterally partially overlapping the at least one high bed seating unit the at least one non-aisle column in the bed position.
An elastomeric medical glove having an antimicrobial surface coating comprising: a polymeric layer, and a dried, non-tacky coating on a surface of the polymeric layer, the coating comprising a cationic antimicrobial agent comprising a biguanide, a polyethylene or polypropylene wax, a lubricant comprising an aminofunctional siloxane, and a water-soluble wetting agent; wherein the glove comprises a residual powder of less than 2 mg per glove. a polymeric layer, and a dried, non-tacky coating on a surface of the polymeric layer, the coating comprising a cationic antimicrobial agent comprising a biguanide, a polyethylene or polypropylene wax, a lubricant comprising an aminofunctional siloxane, and a water-soluble wetting agent; wherein the glove comprises a residual powder of less than 2 mg per glove.
A handheld electronic device, the device comprising: a subsystem providing display capability; a set of motion sensors, integrated in a single chip, the set of motion sensors comprising motion sensors for sensing rotational rate around at least three axes and motion sensors for sensing linear acceleration along at least three axes, wherein the motion sensors for sensing rotational rate are gyroscopes and the motion sensors for sensing linear acceleration are accelerometers and where motion data generated by the set of motion sensors is synchronized among the set of motion sensors in time; a hardware processing block comprising a hardware buffer to store sensor data received from the gyroscopes and accelerometers and a processor to provide motion data by processing the sensor data; and a subsystem which, based on the synchronized motion data derived from the motion sensors, is capable of facilitating interaction with the handheld electronic device by activating functions of the handheld electronic device on the basis of motion of the handheld electronic device detected by means of said synchronised motion data derived from said set of motion sensors. a subsystem providing display capability; a set of motion sensors, integrated in a single chip, the set of motion sensors comprising motion sensors for sensing rotational rate around at least three axes and motion sensors for sensing linear acceleration along at least three axes, wherein the motion sensors for sensing rotational rate are gyroscopes and the motion sensors for sensing linear acceleration are accelerometers and where motion data generated by the set of motion sensors is synchronized among the set of motion sensors in time; a hardware processing block comprising a hardware buffer to store sensor data received from the gyroscopes and accelerometers and a processor to provide motion data by processing the sensor data; and a subsystem which, based on the synchronized motion data derived from the motion sensors, is capable of facilitating interaction with the handheld electronic device by activating functions of the handheld electronic device on the basis of motion of the handheld electronic device detected by means of said synchronised motion data derived from said set of motion sensors.