mhurhangee/ep-ind-claims huggingface dataset:
Operator control device for use in an instrument panel comprising a plurality of operating elements (30, 31, 32), in particular switches and/or pushbuttons, which are arranged next to one another and/or one beneath the other; - wherein the operating elements (30, 31, 32) are switch and/or touch areas which cannot be haptically distinguished from one another; - wherein the plurality of operating elements (30, 31, 32) are at least partially delimited by at least one frame element (42, 44, 46); - wherein the frame element (42, 44, 46) is provided, at least in regions, with surface sections (41, 43, 45) which have an haptically perceptible structure (48, 49, 49') and which are each associated with an operating element (31, 31, 32) in such a way that the haptically perceptible structure (48, 49, 49') provides a haptic orientation for operating the switch and/or touch areas which form the operating elements (30, 31, 32) and cannot be haptically distinguished from one another, characterized - in that the frame element (42, 44, 46) is in the form of a retaining strip which protrudes so far out of the instrument panel that an operator can support his operating hand on the frame element (42, 44, 46) during the operator control process and that the operator can firmly hold onto the frame element (42, 44, 46) with his operating hand during the operator control process. - wherein the operating elements (30, 31, 32) are switch and/or touch areas which cannot be haptically distinguished from one another; - wherein the plurality of operating elements (30, 31, 32) are at least partially delimited by at least one frame element (42, 44, 46); - wherein the frame element (42, 44, 46) is provided, at least in regions, with surface sections (41, 43, 45) which have an haptically perceptible structure (48, 49, 49') and which are each associated with an operating element (31, 31, 32) in such a way that the haptically perceptible structure (48, 49, 49') provides a haptic orientation for operating the switch and/or touch areas which form the operating elements (30, 31, 32) and cannot be haptically distinguished from one another, characterized - in that the frame element (42, 44, 46) is in the form of a retaining strip which protrudes so far out of the instrument panel that an operator can support his operating hand on the frame element (42, 44, 46) during the operator control process and that the operator can firmly hold onto the frame element (42, 44, 46) with his operating hand during the operator control process.
A measuring value acquisition system, comprising: at least one database; and a measuring device arrangement with a measuring device for determining at least one measurement value and with a communication module, wherein the communication module comprises a first interface, a second interface, and a web client; wherein the first interface is connected to the measuring device so that the at least one measurement value is suppliable to the communication module at the first interface; wherein the second interface is connected to the database; wherein the web client is configured to code a measurement value received via the first interface and further information associated with the measurement into a request with an HTTP header; wherein the further information comprises an address identification number of the measuring device, a time of the measurement, or a duration of the measurement; wherein the communication module is configured to provide the coded measurement value and the further information by means of the web client via the second interface to the database and to transfer it to the database; and wherein the measuring device is a level measuring device or a pressure measuring device. at least one database; and a measuring device arrangement with a measuring device for determining at least one measurement value and with a communication module, wherein the communication module comprises a first interface, a second interface, and a web client; wherein the first interface is connected to the measuring device so that the at least one measurement value is suppliable to the communication module at the first interface; wherein the second interface is connected to the database; wherein the web client is configured to code a measurement value received via the first interface and further information associated with the measurement into a request with an HTTP header; wherein the further information comprises an address identification number of the measuring device, a time of the measurement, or a duration of the measurement; wherein the communication module is configured to provide the coded measurement value and the further information by means of the web client via the second interface to the database and to transfer it to the database; and wherein the measuring device is a level measuring device or a pressure measuring device.
A fluorescent immunoassay cup (10, 100, 101) for use in analysis of an immune system using an antigen-antibody reaction, in which beads (22, 62) are used as fluorescent markers, the fluorescent immunoassay cup (10, 100, 101) comprising: a bottom (11, 51); and a side wall connected to the bottom (11, 51), wherein the bottom (11, 51) is provided with a plurality of pores each configured to accommodate a corresponding one of the beads (22, 62), and a region between the pores on an upper side of the bottom (11, 51) is formed in a planar shape, characterized in that the upper side of the bottom (11, 51) and a side wall of the pores are connected by a spline curve in a cross-section of the fluorescent immunoassay cup (10, 100, 101) taken perpendicular to the bottom (11, 51). a bottom (11, 51); and a side wall connected to the bottom (11, 51), wherein the bottom (11, 51) is provided with a plurality of pores each configured to accommodate a corresponding one of the beads (22, 62), and a region between the pores on an upper side of the bottom (11, 51) is formed in a planar shape, characterized in that the upper side of the bottom (11, 51) and a side wall of the pores are connected by a spline curve in a cross-section of the fluorescent immunoassay cup (10, 100, 101) taken perpendicular to the bottom (11, 51).
A composite laminate part having an exposed edge and a fay surface, the part being provided with a seal arrangement comprising: an edge seal covering the exposed edge; an edge cover (72, 96) covering the edge seal; a recess located in the fay surface or in the edge cover (72, 96) adjacent the fay surface; and a seal bead located within the recess and configured to form a seal between the fay surface and a structure to which the part is joined. an edge seal covering the exposed edge; an edge cover (72, 96) covering the edge seal; a recess located in the fay surface or in the edge cover (72, 96) adjacent the fay surface; and a seal bead located within the recess and configured to form a seal between the fay surface and a structure to which the part is joined.
A method for producing a membrane for a fuel cell or electrolytic cell, wherein (i) a liquid coating composition containing a supported, noble-metal-containing catalyst and an ionomer is applied to both the front side and the rear side of a polymer electrolyte membrane containing an ionomer, or a first liquid coating composition containing a supported, noble-metal-containing catalyst and an ionomer is only applied to the front side of the polymer electrolyte membrane and a second liquid coating composition containing a supported, noble-metal-containing catalyst and an ionomer is applied to the opposite side of the polymer electrolyte membrane, wherein the first liquid coating composition and the second liquid coating composition are different so that a coated polymer electrolyte membrane, on the front and rear side of which a catalyst-containing layer is present, is obtained, wherein the ionomer of the liquid coating composition and the ionomer of the polymer electrolyte membrane is in each case a copolymer containing a fluoroethylene and a sulfonic acid group-containing fluorovinyl ether as monomers, wherein the sulfonic acid group-containing fluorovinyl ether comprises formula: -CF -CF 2 - wherein R comprises the following formula: -(CF 2 -CF(CF 3)-O) x -(CF z) y -SO 3 H where x = 0-3 and y = 1-5; (ii) the coated polymer electrolyte membrane is thermally treated by being heated to a temperature in the range from 178 °C to 250 °C. (i) a liquid coating composition containing a supported, noble-metal-containing catalyst and an ionomer is applied to both the front side and the rear side of a polymer electrolyte membrane containing an ionomer, or a first liquid coating composition containing a supported, noble-metal-containing catalyst and an ionomer is only applied to the front side of the polymer electrolyte membrane and a second liquid coating composition containing a supported, noble-metal-containing catalyst and an ionomer is applied to the opposite side of the polymer electrolyte membrane, wherein the first liquid coating composition and the second liquid coating composition are different so that a coated polymer electrolyte membrane, on the front and rear side of which a catalyst-containing layer is present, is obtained, wherein the ionomer of the liquid coating composition and the ionomer of the polymer electrolyte membrane is in each case a copolymer containing a fluoroethylene and a sulfonic acid group-containing fluorovinyl ether as monomers, wherein the sulfonic acid group-containing fluorovinyl ether comprises formula: -CF -CF 2 - wherein R comprises the following formula: -(CF 2 -CF(CF 3)-O) x -(CF z) y -SO 3 H where x = 0-3 and y = 1-5; (ii) the coated polymer electrolyte membrane is thermally treated by being heated to a temperature in the range from 178 °C to 250 °C.
A printer comprising: feeding means configured to feed a print medium along a medium feed path; printing means disposed to oppose the feeding means in the medium feed path, the printing means being configured to print on the print medium fed along the medium feed path; and pressing means configured to press the printing means onto the feeding means in a state where the print medium is nipped between the printing means and the feeding means, characterized in that the pressing means includes: a pressing-force adjustment portion disposed at an upstream side in a feed direction of the print medium with respect to a printing portion of the printing means, the pressing-force adjustment portion adjusting a pressing force on the printing means; and a pressing member disposed between the pressing-force adjustment portion and the printing means in a state where the pressing member connects a pressing portion of the pressing-force adjustment portion and the printing portion of the printing means, the pressing member being configured to transmit the pressing force from the pressing-force adjustment portion to the printing portion through a tip end of the pressing member. feeding means configured to feed a print medium along a medium feed path; printing means disposed to oppose the feeding means in the medium feed path, the printing means being configured to print on the print medium fed along the medium feed path; and pressing means configured to press the printing means onto the feeding means in a state where the print medium is nipped between the printing means and the feeding means, characterized in that the pressing means includes: a pressing-force adjustment portion disposed at an upstream side in a feed direction of the print medium with respect to a printing portion of the printing means, the pressing-force adjustment portion adjusting a pressing force on the printing means; and a pressing member disposed between the pressing-force adjustment portion and the printing means in a state where the pressing member connects a pressing portion of the pressing-force adjustment portion and the printing portion of the printing means, the pressing member being configured to transmit the pressing force from the pressing-force adjustment portion to the printing portion through a tip end of the pressing member. a pressing-force adjustment portion disposed at an upstream side in a feed direction of the print medium with respect to a printing portion of the printing means, the pressing-force adjustment portion adjusting a pressing force on the printing means; and a pressing member disposed between the pressing-force adjustment portion and the printing means in a state where the pressing member connects a pressing portion of the pressing-force adjustment portion and the printing portion of the printing means, the pressing member being configured to transmit the pressing force from the pressing-force adjustment portion to the printing portion through a tip end of the pressing member.
A method of forming a sheet component (100; 100') with the steps of: - formatting and providing a supporting body and a prefabricated cover ply (3, 3'); - applying a polymer mortar (PCC adhesive) and uniformly distributing same to form an adhesive layer (2, 2'); - laying the prefabricated cover ply (3, 3') onto the still viscid adhesive layer (2, 2'); - curing the adhesive present in the component (100; 100'), characterized In that the prefabricated cover ply (3, 3') has an air transmission rate between 6.0 and 21 l/dm2/min and after laying the cover ply (3, 3') onto the still viscid adhesive layer (2, 2') a pressurized membrane of a membrane press applies a molding pressure to the component (100; 100') and in that gases, such as air particles, evolving during the curing process of the adhesive layer (2, 2') are capable of passing outside through the pores or meshes of the composite, wherein the composite forms a barrier to still uncured particles of adhesive and ultimately a whole-areal bond of the cover ply (3, 3') to the adhesive layer (2, 2') is formed without bubbles forming underneath the cover ply (3, 3') with the outcome that the cover ply (3, 3') in its cured/composited state, and also the overall structure of the sheet component (100; 100') is water and gas impervious. - formatting and providing a supporting body and a prefabricated cover ply (3, 3'); - applying a polymer mortar (PCC adhesive) and uniformly distributing same to form an adhesive layer (2, 2'); - laying the prefabricated cover ply (3, 3') onto the still viscid adhesive layer (2, 2'); - curing the adhesive present in the component (100; 100'), characterized In that the prefabricated cover ply (3, 3') has an air transmission rate between 6.0 and 21 l/dm2/min and after laying the cover ply (3, 3') onto the still viscid adhesive layer (2, 2') a pressurized membrane of a membrane press applies a molding pressure to the component (100; 100') and in that gases, such as air particles, evolving during the curing process of the adhesive layer (2, 2') are capable of passing outside through the pores or meshes of the composite, wherein the composite forms a barrier to still uncured particles of adhesive and ultimately a whole-areal bond of the cover ply (3, 3') to the adhesive layer (2, 2') is formed without bubbles forming underneath the cover ply (3, 3') with the outcome that the cover ply (3, 3') in its cured/composited state, and also the overall structure of the sheet component (100; 100') is water and gas impervious.
Interior furnishing component for cladding a floor, wall or ceiling area, comprising a base and a non-woven layer, wherein at least one decoration (4, 6) is applied, at least in parts, to aside of the non-woven layer remote from the base, characterised in that a structure is transferred, by pressing, into the non-woven layer at least in parts and through the non-woven layer into an upper surface of the base.
Electrode active material comprising a core material according to general formula Li 1+x1 TM 1-x1 O 2 wherein TM is a combination of Ni and at least one of Mn, Co and Al, and, optionally, at least one more metal selected from Mg, Ti, Zr, Nb, Ta, and W, and x1 is in the range of from -0.05 to 0.2, and particles of cobalt compound(s) and of aluminum compound(s) and of titanium compound(s) or of zirconium compound(s) wherein the molar ratio of lithium to cobalt in said particles is in the range of from zero to below 1 and wherein in particles the molar ratio of Co to the sum of Al and Zr or Ti is in the range of from 2:1 to 50:1, and wherein said particles are attached to the surface of the core material. a core material according to general formula Li 1+x1 TM 1-x1 O 2 wherein TM is a combination of Ni and at least one of Mn, Co and Al, and, optionally, at least one more metal selected from Mg, Ti, Zr, Nb, Ta, and W, and x1 is in the range of from -0.05 to 0.2, and particles of cobalt compound(s) and of aluminum compound(s) and of titanium compound(s) or of zirconium compound(s) wherein the molar ratio of lithium to cobalt in said particles is in the range of from zero to below 1 and wherein in particles the molar ratio of Co to the sum of Al and Zr or Ti is in the range of from 2:1 to 50:1, and wherein said particles are attached to the surface of the core material.
Testing device for testing a distance sensor operating with electromagnetic waves, having a receiving element for receiving an electromagnetic free-space wave as a receive signal S RX, having a radiating element for radiating a simulated electromagnetic reflection signal S TX, wherein the receive signal S RX or a signal S' RX derived from the receive signal S RX is routed via a time delay circuit with a predeterminable time delay t delay,soll, and is thus time-delayed to a time-delayed signal S delay, wherein the time-delayed signal S delay or a signal S' delay derived from the time-delayed signal S delay is radiated as the simulated reflection signal S TX via the radiating element, characterized in that the time delay circuit has an analog delay path with a predeterminable time delay t delay,soll and a digital delay path with a likewise predeterminable time delay t delay,soll, that the analog delay path implements shorter time delays than the digital delay path, apart from a possible overlap region, that an input switch is used to switch the receive signal S RX or the signal S' RX derived from the receive signal S RX either to the input of the analog delay path or to the input of the digital delay path, and the signal becomes the time-delayed signal S delay after it has passed through the connected delay path. that the time delay circuit has an analog delay path with a predeterminable time delay t delay,soll and a digital delay path with a likewise predeterminable time delay t delay,soll, that the analog delay path implements shorter time delays than the digital delay path, apart from a possible overlap region, that an input switch is used to switch the receive signal S RX or the signal S' RX derived from the receive signal S RX either to the input of the analog delay path or to the input of the digital delay path, and the signal becomes the time-delayed signal S delay after it has passed through the connected delay path.
Dryer with a housing, a control device, a drum for items of laundry to be dried, an access door to the drum, a process air duct, in which a process air fan for conveying the process air and a heater for heating the process air are disposed, and a device (20, 21) for monitoring a closed state of the access door, which comprises a Hall sensor and a magnet, of which a first part (20, 21) is attached to the access door and a second part (20, 21) is attached to the housing, characterised in that when the drum with items of laundry contained therein is rotated, the access door is exposed to a varying pressure from the items of laundry, the device (20, 21) for monitoring the closed state permits a continuous detection of signals of the Hall sensor during the rotation of the drum and the control device is set up to identify the rotation of the drum from the continuously detected signals.
A separator assembly for removing dirt from an air flow in a suction cleaner, the separator assembly including: a first cyclone assembly including a first cyclone separator for separating coarse dirt from an air flow; a second cyclone assembly including a plurality of cyclone separators arranged fluidly in parallel for separating dirt from an air flow, each providing a body with a cyclone inlet (160a, 160b) towards an upper end and a dirt outlet (172a, 172b) formed at a lower end; an upper sealing plate forming an end wall of each of the second cyclone separators, and each cyclone separator extending through a respective opening (130, 132) defined in a lower sealing plate, such that the dirt outlets of the cyclone separators lie below the sealing plate, wherein an outlet of the first cyclone assembly is in fluid connection with an intermediary chamber formed between the upper sealing plate and the lower sealing plate, from which air and dirt is drawn into the inlets of the cyclone separators of the second cyclone assembly, and characterised in that the first cyclone assembly is disposed below the lower sealing plate. a first cyclone assembly including a first cyclone separator for separating coarse dirt from an air flow; a second cyclone assembly including a plurality of cyclone separators arranged fluidly in parallel for separating dirt from an air flow, each providing a body with a cyclone inlet (160a, 160b) towards an upper end and a dirt outlet (172a, 172b) formed at a lower end; an upper sealing plate forming an end wall of each of the second cyclone separators, and each cyclone separator extending through a respective opening (130, 132) defined in a lower sealing plate, such that the dirt outlets of the cyclone separators lie below the sealing plate, wherein an outlet of the first cyclone assembly is in fluid connection with an intermediary chamber formed between the upper sealing plate and the lower sealing plate, from which air and dirt is drawn into the inlets of the cyclone separators of the second cyclone assembly, and characterised in that the first cyclone assembly is disposed below the lower sealing plate.
Method for producing stator pole teeth that are wound and connected to one another, comprising the following steps: - arranging the pole teeth that are to be wound in the form of a row; - winding one pole tooth or several pole teeth of the row; - routing the winding wire or the winding wires out of the winding space in the pole teeth to the outside of said pole teeth into a laying space which is bounded on one side by insulation bodies of the pole teeth; and - laying the winding wire or the winding wires in the laying space in order to connect individual pole teeth to one another, characterized in that, during laying of the winding wire or of the winding wires, the laying space is temporarily constricted such that the winding wires are forcibly automatically axially stacked in the laying space so as to avoid wire crossovers. - arranging the pole teeth that are to be wound in the form of a row; - winding one pole tooth or several pole teeth of the row; - routing the winding wire or the winding wires out of the winding space in the pole teeth to the outside of said pole teeth into a laying space which is bounded on one side by insulation bodies of the pole teeth; and - laying the winding wire or the winding wires in the laying space in order to connect individual pole teeth to one another, characterized in that, during laying of the winding wire or of the winding wires, the laying space is temporarily constricted such that the winding wires are forcibly automatically axially stacked in the laying space so as to avoid wire crossovers.