mhurhangee/patent-ind-claim-en huggingface dataset:
Arrangement for storing items , comprising a loading station , a storage structure and an unloading station , wherein said storage structure comprises a plurality of vertical racks , each comprising at least a pair of vertical walls arranged parallel and facing and provided, at least on the faces facing each other, with a plurality of supports , arranged at different heights and adapted to receive removable supporting elements carrying said items to be stored, wherein said removable supporting elements are made in the form of trays or drawers , each of which can be inserted into and removed from the supports of a pair of facing vertical walls of one of said vertical racks , each removable supporting element, once inserted on respective supports of said facing vertical walls of one of said vertical racks, defining with said vertical walls a compartment for storing an item, each removable supporting element being adapted to carry a single item and each compartment being consequently adapted to store a single item, and said storage structure comprises at least two vertical rack groups , wherein the distance between said vertical walls arranged parallel to and facing each other of the vertical racks of one of said vertical rack groups is different from the distance between said vertical walls arranged parallel to and facing each other of the vertical racks of another one of said vertical rack groups characterized in that said storage arrangement comprises a sensor system for determining the size of an item to be stored, at least two dimensions of the item in directions perpendicular to each other being taken into account in determining the space in which the item is to be stored, and a control system provided with a memory unit in which the geometry of said storage structure and the arrangement of the items already present in said storage structure are memorized, and arranged to determine, based on the output of said sensor system and the data contained in said memory unit, in which vertical rack and on which supports of said vertical rack to place said item to be stored. and said storage structure comprises at least two vertical rack groups , wherein the distance between said vertical walls arranged parallel to and facing each other of the vertical racks of one of said vertical rack groups is different from the distance between said vertical walls arranged parallel to and facing each other of the vertical racks of another one of said vertical rack groups characterized in that said storage arrangement comprises a sensor system for determining the size of an item to be stored, at least two dimensions of the item in directions perpendicular to each other being taken into account in determining the space in which the item is to be stored, and a control system provided with a memory unit in which the geometry of said storage structure and the arrangement of the items already present in said storage structure are memorized, and arranged to determine, based on the output of said sensor system and the data contained in said memory unit, in which vertical rack and on which supports of said vertical rack to place said item to be stored.
A solar cell , comprising: a first conductive type substrate ; an emitter layer of a second conductive type opposite the first conductive type, the emitter layer and the substrate forming a p-n junction; a plurality of front electrodes electrically connected to the emitter layer , at least one of the plurality of front electrodes including a first electrode layer (141a1), and a second electrode layer positioned on an upper surface and a lateral surface of the first electrode layer (141a1); a back electrode electrically connected to the substrate; characterized in that : the at least one of the plurality of front electrodes further includes a plurality of first electrode auxiliaries (141a2) separated from the first electrode layer (141a1), the second electrode layer being positioned on an upper surface and a lateral surface of each of the plurality of first electrode auxiliaries (141a2); wherein the plurality of first electrode auxiliaries (141a2) are residues separated from a first electrode layer pattern forming the first front electrode layer (141a1), and wherein a width of each of the plurality of first electrode auxiliaries (141a2) is smaller than a width of the first front electrode layer (141a1). a first conductive type substrate ; an emitter layer of a second conductive type opposite the first conductive type, the emitter layer and the substrate forming a p-n junction; a plurality of front electrodes electrically connected to the emitter layer , at least one of the plurality of front electrodes including a first electrode layer (141a1), and a second electrode layer positioned on an upper surface and a lateral surface of the first electrode layer (141a1); a back electrode electrically connected to the substrate; characterized in that : the at least one of the plurality of front electrodes further includes a plurality of first electrode auxiliaries (141a2) separated from the first electrode layer (141a1), the second electrode layer being positioned on an upper surface and a lateral surface of each of the plurality of first electrode auxiliaries (141a2); wherein the plurality of first electrode auxiliaries (141a2) are residues separated from a first electrode layer pattern forming the first front electrode layer (141a1), and wherein a width of each of the plurality of first electrode auxiliaries (141a2) is smaller than a width of the first front electrode layer (141a1). the at least one of the plurality of front electrodes further includes a plurality of first electrode auxiliaries (141a2) separated from the first electrode layer (141a1), the second electrode layer being positioned on an upper surface and a lateral surface of each of the plurality of first electrode auxiliaries (141a2); wherein the plurality of first electrode auxiliaries (141a2) are residues separated from a first electrode layer pattern forming the first front electrode layer (141a1), and wherein a width of each of the plurality of first electrode auxiliaries (141a2) is smaller than a width of the first front electrode layer (141a1).
A sensor device for in situ soil analysis, comprising: a sensor assembly with one or more sensors which are configured individually or cumulatively for simultaneous in situ measurement of the following soil properties of a soil to be analyzed and for providing corresponding respective measurement data: (a) impedance spectrum; (b) temperature; and (c) absorption spectrum in a spectral range which extends from NIR to UV, NIR-VIS-UV wherein: the distance between each two sensors of the sensor assembly, defined in relation to their respective measurand transducers, does not exceed a value of 10 cm; in order to measure, in situ, the impedance spectrum (Z(ω)), the sensor assembly is configured to measure an alternating current resistance of a portion of soil to be measured, as a function of the frequency (ω) of an alternating measuring voltage which is applied to the portion of soil; and in order to detect, in situ, the absorption spectrum, the sensor assembly is configured to measure within said spectral range radiation reflected at the soil surface of the soil to be analyzed. a sensor assembly with one or more sensors which are configured individually or cumulatively for simultaneous in situ measurement of the following soil properties of a soil to be analyzed and for providing corresponding respective measurement data: (a) impedance spectrum; (b) temperature; and (c) absorption spectrum in a spectral range which extends from NIR to UV, NIR-VIS-UV (a) impedance spectrum; (b) temperature; and (c) absorption spectrum in a spectral range which extends from NIR to UV, NIR-VIS-UV wherein: the distance between each two sensors of the sensor assembly, defined in relation to their respective measurand transducers, does not exceed a value of 10 cm; in order to measure, in situ, the impedance spectrum (Z(ω)), the sensor assembly is configured to measure an alternating current resistance of a portion of soil to be measured, as a function of the frequency (ω) of an alternating measuring voltage which is applied to the portion of soil; and in order to detect, in situ, the absorption spectrum, the sensor assembly is configured to measure within said spectral range radiation reflected at the soil surface of the soil to be analyzed. the distance between each two sensors of the sensor assembly, defined in relation to their respective measurand transducers, does not exceed a value of 10 cm; in order to measure, in situ, the impedance spectrum (Z(ω)), the sensor assembly is configured to measure an alternating current resistance of a portion of soil to be measured, as a function of the frequency (ω) of an alternating measuring voltage which is applied to the portion of soil; and in order to detect, in situ, the absorption spectrum, the sensor assembly is configured to measure within said spectral range radiation reflected at the soil surface of the soil to be analyzed.
An air core type reactor unit , comprising; a first insulating plate provided with a first insulating spacer on one side; a first ferromagnetic member fixed to the first insulating plate ; a first air core coil having an first air core part and including coil layers which are formed with an air gap in between; a second air core coil having a second air core part and including coil layers which are formed with an air gap in between; a second insulating plate provided with a second insulating spacer on one side; a second ferromagnetic member fixed to the second insulating plate , wherein the first air core coil and the second air core coil are arranged in parallel, and are held and fixed between the first insulating plate and the second insulating plate by way of the first insulating spacer and the second insulating spacer, wherein the second insulating plate and the second ferromagnetic member are configured to have a width (C) smaller than an inside diameter (B) of each air core coil . a first insulating plate provided with a first insulating spacer on one side; a first ferromagnetic member fixed to the first insulating plate ; a first air core coil having an first air core part and including coil layers which are formed with an air gap in between; a second air core coil having a second air core part and including coil layers which are formed with an air gap in between; a second insulating plate provided with a second insulating spacer on one side; a second ferromagnetic member fixed to the second insulating plate , wherein the first air core coil and the second air core coil are arranged in parallel, and are held and fixed between the first insulating plate and the second insulating plate by way of the first insulating spacer and the second insulating spacer, wherein the second insulating plate and the second ferromagnetic member are configured to have a width (C) smaller than an inside diameter (B) of each air core coil .
System which comprises a device and an infotainment system of a motor vehicle, wherein the infotainment system has a computing unit on which a first operating system is installed and can be carried out, wherein the infotainment system has at least one generic interface , wherein the device has a computing unit on which a second operating system is installed and can be carried out, wherein a communication with the Internet can be performed with the second operating system , wherein the device has at least one generic interface , wherein the infotainment system and the device exchange data with each other via the generic interfaces , wherein the system has an antenna as a generic radio interface which is designed as a component of the infotainment system , characterised in that the device and the infotainment system exchange data with the Internet only via the one antenna of the infotainment system , wherein the device exchanges data indirectly with the Internet via the antenna of the infotainment system , wherein applications, which are conceived for the second operating system , can be provided via the infotainment system .
A placement guide device for use with a placement tool , the guide comprising: a first surface configured to be disposed adjacent to a surface of the skin of the patient at the implantation site; wherein the guide further comprises a pilot-tube extending beneath the first surface and comprising a proximal end configured to receive a distal end of a placement cannula of the placement tool for delivering an implant to tissue, a distal end spaced apart from the proximal end at a first distance, and a central longitudinal axis therethrough from the proximal end to the distal end, wherein the longitudinal axis is arranged relative to the first surface at either or both of a second distance and an angle; wherein at least one of the second distance or the angle of the placement guide is configured to guide the placement cannula of the placement tool within the tissue to effect implantation of the implant beneath the outer surface of the skin of the patient such that opposite ends of the implant are placed at a determined depth that is substantially the same; and wherein the implant is an osmotic mini-pump. wherein the guide further comprises a pilot-tube extending beneath the first surface and comprising a proximal end configured to receive a distal end of a placement cannula of the placement tool for delivering an implant to tissue, a distal end spaced apart from the proximal end at a first distance, and a central longitudinal axis therethrough from the proximal end to the distal end, wherein the longitudinal axis is arranged relative to the first surface at either or both of a second distance and an angle; wherein at least one of the second distance or the angle of the placement guide is configured to guide the placement cannula of the placement tool within the tissue to effect implantation of the implant beneath the outer surface of the skin of the patient such that opposite ends of the implant are placed at a determined depth that is substantially the same; and wherein the implant is an osmotic mini-pump.
A method to be performed by a computing device, the method comprising: processing at least one captured image captured by a camera, the captured image comprising at least one reflection of a flash on a lens of eyeglasses, and a reference object image of a reference object captured by the camera via said lens; determining one or more estimated optical parameters of said lens based on a comparison between said reference object and said reference object image; determining a relative angle between a plane of said lens and a plane of said camera based on said at least one reflection; and determining one or more optical parameters of said lens based said relative angle and said one or more estimated optical parameters. processing at least one captured image captured by a camera, the captured image comprising at least one reflection of a flash on a lens of eyeglasses, and a reference object image of a reference object captured by the camera via said lens; determining one or more estimated optical parameters of said lens based on a comparison between said reference object and said reference object image; determining a relative angle between a plane of said lens and a plane of said camera based on said at least one reflection; and determining one or more optical parameters of said lens based said relative angle and said one or more estimated optical parameters.
A method of printing ultra-narrow-gap lines of a functional material, comprising the steps of: providing a substrate having an interlayer coated on the substrate; and employing a direct printing process, printing the ultra-narrow-gap lines with a gap between the ultra-narrow-gap lines that is smaller than 10 μm by depositing an ink on the interlayer of the substrate, the ink comprising the functional material and a solvent that swells the interlayer to cause the interlayer to bulge at edges of the ink to thereby define embankments that confine the ink, wherein the solvent is selected from the group consisting of methanol, ethanol, butanol, ethanediol, glycerine, 2-isopropoxyethanol and any combination thereof; and characterized in that the interlayer is SU-8 composed of a fully epoxidised bisphenol-A/ formaldehyde novolac co-polymer. providing a substrate having an interlayer coated on the substrate; and employing a direct printing process, printing the ultra-narrow-gap lines with a gap between the ultra-narrow-gap lines that is smaller than 10 μm by depositing an ink on the interlayer of the substrate, the ink comprising the functional material and a solvent that swells the interlayer to cause the interlayer to bulge at edges of the ink to thereby define embankments that confine the ink, wherein the solvent is selected from the group consisting of methanol, ethanol, butanol, ethanediol, glycerine, 2-isopropoxyethanol and any combination thereof; and characterized in that the interlayer is SU-8 composed of a fully epoxidised bisphenol-A/ formaldehyde novolac co-polymer.
A dental laser system for removing a region of dental tissue, the system comprising: a laser source for generating a plurality of laser pulse bursts of a laser beam; a beam guidance system and a controller adapted to control the laser source and the beam guidance system such that the beam guidance system: directs a first laser pulse burst to a first tissue location in a pattern of tissue locations within the region of dental tissue; directs at least one additional laser pulse burst to at least one additional non-adjacent tissue location in the pattern; directs a next laser pulse burst to a tissue location in the pattern adjacent to the first tissue location or at the first tissue location, wherein a quantity of additional non-adjacent tissue locations is determined based, at least in part, on (i) a thermal relaxation time corresponding to melting of the dental tissue and (ii) a property of the laser pulses, and wherein the number (k) of additional laser pulse bursts multiplied by a period of each additional laser pulse burst is greater than a selected multiple of the thermal relaxation time of the material to be ablated. a laser source for generating a plurality of laser pulse bursts of a laser beam; a beam guidance system and a controller adapted to control the laser source and the beam guidance system such that the beam guidance system: directs a first laser pulse burst to a first tissue location in a pattern of tissue locations within the region of dental tissue; directs at least one additional laser pulse burst to at least one additional non-adjacent tissue location in the pattern; directs a next laser pulse burst to a tissue location in the pattern adjacent to the first tissue location or at the first tissue location, directs a first laser pulse burst to a first tissue location in a pattern of tissue locations within the region of dental tissue; directs at least one additional laser pulse burst to at least one additional non-adjacent tissue location in the pattern; directs a next laser pulse burst to a tissue location in the pattern adjacent to the first tissue location or at the first tissue location, wherein a quantity of additional non-adjacent tissue locations is determined based, at least in part, on (i) a thermal relaxation time corresponding to melting of the dental tissue and (ii) a property of the laser pulses, and wherein the number (k) of additional laser pulse bursts multiplied by a period of each additional laser pulse burst is greater than a selected multiple of the thermal relaxation time of the material to be ablated.
Switch , wherein the switch comprises a sensor device capable of transmitting data related to a sensor signal (S) of at least one sensor of the sensor device to an external unit through wireless communication, wherein the sensor device comprises a control unit connected to the sensor or sensors, characterised in that the control unit is configured to provide a sleep-mode where the sensor device does not communicate, and an active mode where the sensor device evaluates the sensor signals and communicates with the external unit via wireless communication, whereby - the switch comprises a trip coil configured to activate the off-state of the switch in response to a trip coil current (It) applied to the trip coil, and - the control unit is configured to activate its active mode upon occurrence of the trip coil current. - the switch comprises a trip coil configured to activate the off-state of the switch in response to a trip coil current (It) applied to the trip coil, and - the control unit is configured to activate its active mode upon occurrence of the trip coil current.
Acrylate-free cosmetic O/W emulsion comprising, a) at least one substance selected from the group comprising polyglyceryl-3 methylglucose distearate, polyglyceryl-10 stearate, polyglyceryl-6 stearate and polyglyceryl-6 behenate, b) hydroxypropyl starch phosphate, and c) glycerol monostearate and/or sorbitan monostearate, characterized in that the total proportion of the polyglyceryl esters specified under a) is from 0.1% by weight to 5.0% by weight, preferably from 0.5% by weight to 3.5% by weight and most preferably from 1% by weight to 2.5% by weight, based on the total weight of the emulsion. a) at least one substance selected from the group comprising polyglyceryl-3 methylglucose distearate, polyglyceryl-10 stearate, polyglyceryl-6 stearate and polyglyceryl-6 behenate, b) hydroxypropyl starch phosphate, and c) glycerol monostearate and/or sorbitan monostearate,
A damper for a shock absorber comprising: a damper chamber divided by a piston and shaft into a compression portion and a rebound portion ; a dampening fluid within said damper chamber ; a bottom out cup at an end of the chamber ; a bottom out piston disposed at an end of the shaft for sealing engagement with the bottom out cup ; and a fluid flow path connecting the bottom out cup with the compression portion of the chamber; wherein the capacity of the fluid flow path is adjustable; characterized in that said piston comprises fluid paths therethrough to permit said dampening fluid to be metered from said compression portion through the piston and into said rebound portion when said shaft moves into said damper chamber ; and by a fluid path between the bottom out cup and the rebound portion of the damper chamber , the fluid path formed in the shaft . a damper chamber divided by a piston and shaft into a compression portion and a rebound portion ; a dampening fluid within said damper chamber ; a bottom out cup at an end of the chamber ; a bottom out piston disposed at an end of the shaft for sealing engagement with the bottom out cup ; and a fluid flow path connecting the bottom out cup with the compression portion of the chamber; wherein the capacity of the fluid flow path is adjustable; characterized in that said piston comprises fluid paths therethrough to permit said dampening fluid to be metered from said compression portion through the piston and into said rebound portion when said shaft moves into said damper chamber ; and by a fluid path between the bottom out cup and the rebound portion of the damper chamber , the fluid path formed in the shaft .