mhurhangee/ep-ind-claims huggingface dataset:
Method for fabricating and inspecting a photovoltaic assembly, including: - a base, - at least one photovoltaic module, comprising at least one photovoltaic cell between a first transparent layer forming a front face of said at least one photovoltaic module and the base, - at least one adhesion layer based on a crosslinkable polymer material, disposed between the base and said at least one photovoltaic module, characterised in that it includes the following steps: - a step A) of depositing said at least one adhesion layer on the base, - a step B) of assembling said at least one photovoltaic module on the base covered by said at least one adhesion layer, - a step C) of partially crosslinking said at least one adhesion layer based on a crosslinkable polymer material to form at least one partially crosslinked adhesion layer (4a, 4b), having an adhesive power allowing a subsequent removal of said at least one photovoltaic module, - an electrical connection step D) consisting in electrically connecting said at least one photovoltaic module to electrical connection means of the base, - a step E) of inspecting the mechanical and electrical functioning of said at least one photovoltaic module, - in the event of correct functioning being detected at the outcome of step E), a step F) of finalising the crosslinking of said at least one partially crosslinked adhesion layer (4a, 4b), - in the event of incorrect functioning being detected at the outcome of step E), a step G) of removing at least one defective photovoltaic module, then return to step A) in view of assembling one or more new photovoltaic modules. - a base, - at least one photovoltaic module, comprising at least one photovoltaic cell between a first transparent layer forming a front face of said at least one photovoltaic module and the base, - at least one adhesion layer based on a crosslinkable polymer material, disposed between the base and said at least one photovoltaic module, characterised in that it includes the following steps: - a step A) of depositing said at least one adhesion layer on the base, - a step B) of assembling said at least one photovoltaic module on the base covered by said at least one adhesion layer, - a step C) of partially crosslinking said at least one adhesion layer based on a crosslinkable polymer material to form at least one partially crosslinked adhesion layer (4a, 4b), having an adhesive power allowing a subsequent removal of said at least one photovoltaic module, - an electrical connection step D) consisting in electrically connecting said at least one photovoltaic module to electrical connection means of the base, - a step E) of inspecting the mechanical and electrical functioning of said at least one photovoltaic module, - in the event of correct functioning being detected at the outcome of step E), a step F) of finalising the crosslinking of said at least one partially crosslinked adhesion layer (4a, 4b), - in the event of incorrect functioning being detected at the outcome of step E), a step G) of removing at least one defective photovoltaic module, then return to step A) in view of assembling one or more new photovoltaic modules.
Transmission/reception device (12; 120) for a bus system, having a first driver (123, 124, 125) for driving a first signal (CAN_H) for a first bus wire of a bus of the bus system, which bus system at least intermittently ensures exclusive collision-free access by a subscriber station (10, 20, 30) to the bus of the bus system, a second driver (123, 124, 127) for driving a second signal (CAN_L) for the second bus wire of the bus, and an oscillation reduction unit (15; 150) configured to produce a short between the bus wires at least during a change of state of the signal (CAN_H, CAN_L) on at least one of the bus wires (41, 42) from a dominant bus state to a recessive bus state, characterized in that a controllable current source and a cascode transistor are used to drive a signal (CAN_H) for the first bus wire via a first current mirror and a first output stage transistor, wherein the first current mirror is implemented as a PMOS current mirror, wherein there is provision for a first polarity reversal protection diode for the first current mirror, said polarity reversal protection diode being connected between the first current mirror and a connection to the voltage supply, wherein the anode of the first polarity reversal protection diode is connected to the connection, wherein the controllable current source and the cascode transistor are used to drive a signal (CAN_L) for the second bus wire via a second current mirror and a second output stage transistor, wherein the second current mirror is implemented as an NMOS current mirror, wherein there is provision for a second polarity reversal protection diode for the second current mirror, between a source connection of the second output stage transistor and the connection for the second bus wire.
Electrochemical cell having the features that a. it comprises a cathode capable of reversibly accommodating lithium ions and b. it comprises an anode containing metallic lithium as active material and c. it comprises a separator arranged between the cathode and the anode, wherein d. the anode comprises a porous, electrically conductive matrix having an open-pored structure and e. the metallic lithium of the anode is incorporated in pores of the matrix and f. the cell comprises a metal foil as an electrical conductor for making electrical contact with the anode and g. the matrix was formed directly on the metal foil by carbonization of a porous organic compound. a. it comprises a cathode capable of reversibly accommodating lithium ions and b. it comprises an anode containing metallic lithium as active material and c. it comprises a separator arranged between the cathode and the anode, wherein d. the anode comprises a porous, electrically conductive matrix having an open-pored structure and e. the metallic lithium of the anode is incorporated in pores of the matrix and f. the cell comprises a metal foil as an electrical conductor for making electrical contact with the anode and g. the matrix was formed directly on the metal foil by carbonization of a porous organic compound.
An elastomeric component for a device containing a pharmaceutical drug product, the elastomeric component having an outer drug contact surface comprising: a first portion comprising at least one taggant and a first elastomeric material; and a second portion comprising a second elastomeric material between the first portion and the drug contact surface, wherein the at least one taggant has a first diffusivity relative to the first elastomeric material and a second diffusivity relative to the second elastomeric material, and the second diffusivity is less than the first diffusivity. a first portion comprising at least one taggant and a first elastomeric material; and a second portion comprising a second elastomeric material between the first portion and the drug contact surface, wherein the at least one taggant has a first diffusivity relative to the first elastomeric material and a second diffusivity relative to the second elastomeric material, and the second diffusivity is less than the first diffusivity.
Process for producing an abrasive coating on a substrate, in particular on a blade tip of a rotor blade, wherein two layers (7, 10) for the abrasive coating, namely a bottom layer of a solder layer and an outer, second layer of a coating comprising abrasive particles, are applied, in particular as tapes, to the substrate, and the bottom solder layer is then joined to the substrate by a soldering process, as a result of which the outer, second layer is also bonded-on, where the material of the bottom solder layer has a melting point which is at least 10K lower, in particular at least 20K lower, than that of the material of the substrate, and very particularly also has a melting point which is at least 10K lower, in particular at least 20K lower, than that of the material of the outer, second layer, wherein the outer, second layer comprising abrasive particles comprises NiCoCrAlY as matrix material. in particular on a blade tip of a rotor blade, wherein two layers (7, 10) for the abrasive coating, namely a bottom layer of a solder layer and an outer, second layer of a coating comprising abrasive particles, are applied, in particular as tapes, to the substrate, and the bottom solder layer is then joined to the substrate by a soldering process, as a result of which the outer, second layer is also bonded-on, where the material of the bottom solder layer has a melting point which is at least 10K lower, in particular at least 20K lower, than that of the material of the substrate, and very particularly also has a melting point which is at least 10K lower, in particular at least 20K lower, than that of the material of the outer, second layer, wherein the outer, second layer comprising abrasive particles comprises NiCoCrAlY as matrix material.
A magnetic knife stand comprising one or more inserting slits each suitable for receiving a blade of a knife having a cutting edge, two side surfaces, and a back edge directly opposite to the cutting edge; each of the inserting slits has a corresponding knife sheath removably connecting to a corresponding inserting slit of the inserting slits; one or more magnets is/are disposed respectively on an upper inner side of each of the inserting slits for attracting the back edge of the blade of a knife inserted with the cutting edge facing downward, a hole or a hollow is disposed on the upper inner side of each of the inserting slits, and a corresponding magnet/magnets of the magnets is/are placed inside the hole or hollow; when the knife is inserted into the corresponding knife sheath through the corresponding inserting slit of the inserting slits after use, the corresponding magnet/magnets of the magnets disposed on the upper inner side of the corresponding inserting slit attracts the knife, thereby keeping the back edge of the knife in contact with the upper inner side of the corresponding inserting slit while being inserted so that the cutting edge of the knife is kept at a certain distance away from the bottom inner side of the corresponding inserting slit to avoid the cutting edge from rubbing against the bottom inner side of the corresponding inserting slit during the process of inserting the knife, and keeping the cutting edge of the knife in a position away from and having no contact with the bottom of the corresponding knife sheath after the knife is completely inserted into the corresponding knife sheath.
Connection piece (105, 501) for a pitch tube of a wind turbine, the connection piece (105, 501) having a receptacle (309, 507) into which the pitch tube can be at least partly inserted; the connection piece (105, 501) being formed in at least two pieces, comprising a first part (103, 503) and a second part (107, 311, 505); the first part (103, 503) having a first at least partly annular sealing surface (301, 509); and the second part (107, 311, 505) having a second at least partly annular sealing surface (303, 511); and the first sealing surface (301, 509) and the second sealing surface (303, 509), together with a part of the surface of the pitch tube, forming at least one part of a surface that delimits a hollow space for receiving a seal (307, 401, 513, 601) when the pitch tube has been inserted into the receptacle (309, 507); characterized by at least one means for varying the distance between the first sealing surface (301, 509) and the second sealing surface (303, 511); wherein a rotor and/or a rotor shaft and/or a planet carrier of the wind turbine forms the first part of the connection piece.
Medical injection device (1; 33; 41; 56; 58) comprising - an injection unit including -- a container for a medium to be injected; -- an injection cannula which communicates with the container; - a port and connection portion which is connected, via a plug-in connection, to a near-cannula end of the container; - a protective cap for the injection cannula which is detachably connected to the port and connection portion at a near-cannula end of the container; - an anti-rotation device -- which is non-rotationally connected to the port and connection portion; and -- which surrounds the outside of the port and connection portion in the manner of a sleeve - wherein the anti-rotation device is connected to the injection unit via a positive-fit adapter. - an injection unit including -- a container for a medium to be injected; -- an injection cannula which communicates with the container; -- a container for a medium to be injected; -- an injection cannula which communicates with the container; - a port and connection portion which is connected, via a plug-in connection, to a near-cannula end of the container; - a protective cap for the injection cannula which is detachably connected to the port and connection portion at a near-cannula end of the container; - an anti-rotation device -- which is non-rotationally connected to the port and connection portion; and -- which surrounds the outside of the port and connection portion in the manner of a sleeve -- which is non-rotationally connected to the port and connection portion; and -- which surrounds the outside of the port and connection portion in the manner of a sleeve - wherein the anti-rotation device is connected to the injection unit via a positive-fit adapter.
A communication method, comprising: generating a preamble for silencing communication on a communication medium with respect to an upcoming data transmission; configuring the preamble to identify one or more target devices for the silencing wherein the preamble is configured to include one or more silencing criteria for identifying the one or more target devices, wherein the one or more silencing criteria include a protected device identity and an associated interference level tolerance threshold that implicitly indicates the identity of a target device with respect to the interference the target device may be causing to the protected device; and transmitting the preamble over the communication medium in advance of the upcoming data transmission, such that any device receiving the preamble may compare the interference level tolerance threshold to an uplink signaling history of the protected device such that devices receiving the preamble while observing that they are causing interference to the protected device at an intolerable level will silence transmission, and other devices will not. generating a preamble for silencing communication on a communication medium with respect to an upcoming data transmission; configuring the preamble to identify one or more target devices for the silencing wherein the preamble is configured to include one or more silencing criteria for identifying the one or more target devices, wherein the one or more silencing criteria include a protected device identity and an associated interference level tolerance threshold that implicitly indicates the identity of a target device with respect to the interference the target device may be causing to the protected device; and transmitting the preamble over the communication medium in advance of the upcoming data transmission, such that any device receiving the preamble may compare the interference level tolerance threshold to an uplink signaling history of the protected device such that devices receiving the preamble while observing that they are causing interference to the protected device at an intolerable level will silence transmission, and other devices will not.
An extensible corrugated hose for gardening, comprising: - a single tubular body consisting of: - a first bearing layer in a elastically extensible first polymeric material; - a meshed, braided or spiral wound reinforcement wound on said first layer; - a stabilizing second layer in an elastically extensible second polymeric material covering said reinforcement; wherein said single tubular body is corrugated and has a plurality of ridges, a coating third layer being further provided and placed on said second layer for covering said corrugated single tubular body, characterized in that said third coating layer is firmly connected with said ridges and has a thickness greater than said corrugated tubular body so as to not undergo corrugation following the expansion and contraction thereof. - a single tubular body consisting of: - a first bearing layer in a elastically extensible first polymeric material; - a meshed, braided or spiral wound reinforcement wound on said first layer; - a stabilizing second layer in an elastically extensible second polymeric material covering said reinforcement;
Gas exchange unit, in particular an oxygenator, for enriching blood with oxygen and for removing carbon dioxide from the blood, comprising hollow fiber mats, comprising a housing with an inlet housing, comprising an inlet for the blood, wherein the inlet is arranged acentrically on the inlet housing and is inclined towards the inlet housing in such a way that the blood can be provided with a rotation, characterized in that suitable structures (6, 6a, 6b) are arranged on the inner blood-conducting surface of the inlet housing in such a way that the flow of the blood flowing through can additionally be distributed as homogeneously as possible.
Evaluation circuit for a capacitive sensor for recording the distance, the speed or the position of an object, having a reference capacitance and two measuring capacitances, wherein the reference capacitance and the measuring capacitances have a respective square-wave voltage (Takt0-Takt2) applied thereto via a respective resistor (Rref, Rel1, Rel2) and a variable-duration pulse is obtained using a first switching stage and further switching stages (42, 43, 44), which variable-duration pulse constitutes a measure of the respective measuring capacitance, the reference capacitance is connected to the input of the first switching stage, wherein each measuring capacitance is connected to the input of a respective further switching stage (42, 43), wherein the further switching stages (42, 43) have enable inputs that are controlled by the output of the first switching stage, wherein the outputs of the further switching stages (42, 43) are connected in each case to inputs of integration stages (5a, 5b), wherein a charging capacitor is charged via the outputs of the integration stages (5a, 5b), wherein the switching stages have threshold voltages and, when the threshold voltage of the first switching stage is reached, a start signal for starting the charging process of the charging capacitor is generated and, when the threshold voltage of a further switching stage (42, 43) is reached, a stop signal for stopping the charging process of the charging capacitor is generated.
A crushing assembly including: a first jaw member; a second jaw member cooperating with the first jaw member to provide a passage along which material to be crushed passes from a passage inlet to a passage outlet, the passage having a transverse height extending between the jaw members; an actuator associated with the jaw members and operable to alter the height so that the height diminishes from said inlet to said outlet; a plurality of rollers extending transverse of the passage and which engage the material to aid in crushing the material; and a motor to rotatably drive at least one of the rollers, characterised in that: at least one of the rollers has a generally central longitudinal axis, and the roller is mounted for rotation about a rotational axis spaced from the longitudinal axis. a first jaw member; a second jaw member cooperating with the first jaw member to provide a passage along which material to be crushed passes from a passage inlet to a passage outlet, the passage having a transverse height extending between the jaw members; an actuator associated with the jaw members and operable to alter the height so that the height diminishes from said inlet to said outlet; a plurality of rollers extending transverse of the passage and which engage the material to aid in crushing the material; and a motor to rotatably drive at least one of the rollers, characterised in that: at least one of the rollers has a generally central longitudinal axis, and the roller is mounted for rotation about a rotational axis spaced from the longitudinal axis.
A microelectromechanical sensor device having a sensing structure comprising: a substrate; an inertial mass, suspended above the substrate and elastically coupled to an anchoring structure by elastic coupling elements, so as to perform at least one inertial movement due to a quantity to be sensed; first sensing electrodes, integrally coupled to the inertial mass to be movable due to said inertial movement; second sensing electrodes, fixed with respect to said quantity to be sensed, facing and capacitively coupled to the first sensing electrodes to form sensing capacitances having a value indicative of the quantity to be sensed, wherein said second sensing electrodes are arranged in a suspended manner above the substrate; and a compensation structure, characterized in that said compensation structure is configured to move said second sensing electrodes with respect to said first sensing electrodes and vary a facing distance thereof, in the absence of said quantity to be sensed, in order to compensate for an offset of said sensing structure. a substrate; an inertial mass, suspended above the substrate and elastically coupled to an anchoring structure by elastic coupling elements, so as to perform at least one inertial movement due to a quantity to be sensed; first sensing electrodes, integrally coupled to the inertial mass to be movable due to said inertial movement; second sensing electrodes, fixed with respect to said quantity to be sensed, facing and capacitively coupled to the first sensing electrodes to form sensing capacitances having a value indicative of the quantity to be sensed, wherein said second sensing electrodes are arranged in a suspended manner above the substrate; and a compensation structure, characterized in that said compensation structure is configured to move said second sensing electrodes with respect to said first sensing electrodes and vary a facing distance thereof, in the absence of said quantity to be sensed, in order to compensate for an offset of said sensing structure.
A noise suppression film having reduced unevenness of electromagnetic wave noise absorbability, which comprises a thin Ni film, which is vapor-deposited on one surface of a stretched plastic film of polyethylene terephthalate, characterized in that said thin Ni film is then subjected to a heat-shrinkage-causable heat treatment at a temperature in a range of 110 - 170 °C for 10 minutes to 1 hour, (a) the light transmittance of said thin Ni film measured with laser rays having a wavelength of 660 nm being 3 - 50 %, and (b) the surface resistance of said thin Ni film being 10 - 200 Ω/square when measured on its square test piece TP of 10 cm x 10 cm under a load of 3.85 kg applied via a flat pressure plate, with a pair of electrodes (11, 11) each having a length completely covering a side of said test piece disposed on opposing side portions of said test piece. (a) the light transmittance of said thin Ni film measured with laser rays having a wavelength of 660 nm being 3 - 50 %, and (b) the surface resistance of said thin Ni film being 10 - 200 Ω/square when measured on its square test piece TP of 10 cm x 10 cm under a load of 3.85 kg applied via a flat pressure plate, with a pair of electrodes (11, 11) each having a length completely covering a side of said test piece disposed on opposing side portions of said test piece.