mhurhangee/ep-ind-claims huggingface dataset:
Refrigerator, in particular domestic refrigerator, having an inner container with a coolable interior for storing refrigerated goods, a cold accumulator with a storage material, and a first refrigerant circuit with an evaporator for cooling the storage material of the refrigerant circuit, with a second refrigerant circuit, which comprises a heat exchanger arranged within the interior and which is coupled to the storage material of the cold accumulator, wherein the cold accumulator, at least its storage material, is thermally insulated from the interior and the evaporator is connected in a thermally conducting manner with the storage material, wherein - the evaporator is surrounded entirely by the storage material of the cold accumulator and the first refrigerant circuit is embodied as a compression refrigerant circuit which comprises a condenser, a compressor and the evaporator, wherein - the second refrigerant circuit is embodied as a refrigerant circuit which has the heat exchanger and a further heat exchanger connected to the heat exchanger and connected in a thermally conducting manner with the storage material of the cold accumulator, so that refrigerant of the refrigerant circuit cooled by the storage material flows from the further heat exchanger into the heat exchanger, wherein the evaporator is connected in a thermally conducting manner with the further heat exchanger, wherein the refrigerant circuit has a circulation pump, which is configured to pump the refrigerant from the further heat exchanger to the heat exchanger, so that the refrigerant flows through the heat exchanger and back to the further heat exchanger, wherein a control apparatus connected to the circulation pump is configured to activate the circulation pump for regulating the temperature of the interior, characterised in that the evaporator and the further heat exchanger touch, wherein a further evaporator, which is part of a compression refrigerant circuit of the refrigerator, is connected in a thermally conducting manner with the interior, in order to cool the interior, and wherein the control apparatus of the refrigerator for cooling the interior only then activates the circulation pump to the cool the interior if there is no electrical energy available to the refrigerator from a mains electric power supply and otherwise cools the interior exclusively by way of the further evaporator. - the evaporator is surrounded entirely by the storage material of the cold accumulator and the first refrigerant circuit is embodied as a compression refrigerant circuit which comprises a condenser, a compressor and the evaporator, wherein - the second refrigerant circuit is embodied as a refrigerant circuit which has the heat exchanger and a further heat exchanger connected to the heat exchanger and connected in a thermally conducting manner with the storage material of the cold accumulator, so that refrigerant of the refrigerant circuit cooled by the storage material flows from the further heat exchanger into the heat exchanger,
A precompression system (7; 107; 207) for a liquid dispensing device (1; 101; 201) having an inlet (5; 105; 205) and an outlet (6; 106; 206), the precompression system (7; 107; 207) comprising: a pump chamber (15; 115; 215) including a piston (16; 116; 216) movable in the pump chamber (15; 115; 215) for drawing liquid through the inlet (5; 105; 205) and discharging the liquid through the outlet (6; 106; 206); and a valve chamber (26; 126; 226) including a valve member (27; 127; 227) disposed between the pump chamber (15; 115; 215) and the outlet (6; 106; 206) and being operable to allow liquid in the pump chamber (15; 115; 215) to reach the outlet (6; 106; 206) only after a predetermined pressure is established in said pump chamber (15; 115; 215) and to stop liquid from reaching the outlet (6; 106; 206) when the pressure in the pump chamber (15; 115; 215) falls below said predetermined pressure, wherein the valve chamber (26; 126; 226) has an inlet end (28; 128; 228) in fluid communication with said pump chamber (15; 115; 215), an outlet end (29; 129; 229) in fluid communication with the outlet (6; 106; 206) and an annular valve seat (31; 131; 231) arranged between the inlet end (28; 128; 228) and the outlet end (29; 129; 229) and having an opening (30; 130; 230) extending therethrough, characterized in that the valve member (27; 127; 227) comprises an elastic diaphragm (32; 132; 232) stretched around the annular valve seat (31; 131; 231) and normally closing the valve seat opening (30; 31; 131). a pump chamber (15; 115; 215) including a piston (16; 116; 216) movable in the pump chamber (15; 115; 215) for drawing liquid through the inlet (5; 105; 205) and discharging the liquid through the outlet (6; 106; 206); and a valve chamber (26; 126; 226) including a valve member (27; 127; 227) disposed between the pump chamber (15; 115; 215) and the outlet (6; 106; 206) and being operable to allow liquid in the pump chamber (15; 115; 215) to reach the outlet (6; 106; 206) only after a predetermined pressure is established in said pump chamber (15; 115; 215) and to stop liquid from reaching the outlet (6; 106; 206) when the pressure in the pump chamber (15; 115; 215) falls below said predetermined pressure, wherein the valve chamber (26; 126; 226) has an inlet end (28; 128; 228) in fluid communication with said pump chamber (15; 115; 215), an outlet end (29; 129; 229) in fluid communication with the outlet (6; 106; 206) and an annular valve seat (31; 131; 231) arranged between the inlet end (28; 128; 228) and the outlet end (29; 129; 229) and having an opening (30; 130; 230) extending therethrough, characterized in that the valve member (27; 127; 227) comprises an elastic diaphragm (32; 132; 232) stretched around the annular valve seat (31; 131; 231) and normally closing the valve seat opening (30; 31; 131).
An arc baffle comprising: a first baffle member having a number of first venting holes disposed therein near a first end thereof and the remainder of the first baffle member being free of any venting holes, each of the first venting holes being structured to receive ionized gases produced by an arcing event; a second baffle member having a number of second venting holes disposed therein near a second end thereof and the remainder of the second baffle member being free of any venting holes; a section of porous material disposed between the first baffle member and the second baffle member; and a cover disposed adjacent the second baffle member on the opposite side of the section of porous material, the cover having a number of openings disposed adjacent the second venting holes, wherein the number of first venting holes are disposed offset from a centerline of the arc baffle toward a first end of the arc baffle, and wherein the number of second venting holes are disposed offset from the centerline of the arc baffle toward the second end of the arc baffle opposite from the first end such that the number of first venting holes are laterally spaced from the number of second venting holes by at least a predetermined distance (d) such that ionized gases produced by the arcing event passing through the first baffle member and the second baffle member enter one of the first venting holes and then must travel at minimum the predetermined distance (d) generally along the section of porous material and across the centerline of the arc baffle before passing through one of the second venting holes. a first baffle member having a number of first venting holes disposed therein near a first end thereof and the remainder of the first baffle member being free of any venting holes, each of the first venting holes being structured to receive ionized gases produced by an arcing event; a second baffle member having a number of second venting holes disposed therein near a second end thereof and the remainder of the second baffle member being free of any venting holes; a section of porous material disposed between the first baffle member and the second baffle member; and a cover disposed adjacent the second baffle member on the opposite side of the section of porous material, the cover having a number of openings disposed adjacent the second venting holes, wherein the number of first venting holes are disposed offset from a centerline of the arc baffle toward a first end of the arc baffle, and wherein the number of second venting holes are disposed offset from the centerline of the arc baffle toward the second end of the arc baffle opposite from the first end such that the number of first venting holes are laterally spaced from the number of second venting holes by at least a predetermined distance (d) such that ionized gases produced by the arcing event passing through the first baffle member and the second baffle member enter one of the first venting holes and then must travel at minimum the predetermined distance (d) generally along the section of porous material and across the centerline of the arc baffle before passing through one of the second venting holes.
A surface-mountable negative-characteristic thermistor comprising: a ceramic body composed of a semiconductor ceramic material containing Mn, Co, and Ti; external electrodes disposed on surfaces of the ceramic body; and plating films disposed on the external electrodes, wherein when the molar quantity of Mn in the semiconductor ceramic material is represented by a and when the molar quantity of Co in the semiconductor ceramic material is represented by c, the molar ratio of Mn to Co is in the range of 10/90 ≤ a/c ≤ 70/30, and wherein when the total molar quantity of Mn and Co in the semiconductor ceramic material is defined as 100 parts by mole, the content of Ti is in the range of 1 part by mole to 30 parts by mole, characterized in that internal electrodes are embedded in the ceramic body, and the internal electrodes are electrically connected to the external electrodes, and the internal electrodes are each composed of Ag-Pd, and the content of Ag is in the range of 60% to 90%. a ceramic body composed of a semiconductor ceramic material containing Mn, Co, and Ti; external electrodes disposed on surfaces of the ceramic body; and plating films disposed on the external electrodes, wherein when the molar quantity of Mn in the semiconductor ceramic material is represented by a and when the molar quantity of Co in the semiconductor ceramic material is represented by c, the molar ratio of Mn to Co is in the range of 10/90 ≤ a/c ≤ 70/30, and wherein when the total molar quantity of Mn and Co in the semiconductor ceramic material is defined as 100 parts by mole, the content of Ti is in the range of 1 part by mole to 30 parts by mole, characterized in that internal electrodes are embedded in the ceramic body, and the internal electrodes are electrically connected to the external electrodes, and the internal electrodes are each composed of Ag-Pd, and the content of Ag is in the range of 60% to 90%.
A water lubricating system comprising a plurality of members including a SiC member and/or a SiO 2 member and a water lubricant composition comprising: water as a lubricating base material; and hydrogen-reduced nanodiamond particles, wherein the hydrogen-reduced nanodiamond particles are present in a content of 0.1% by mass or less, and wherein the hydrogen-reduced nanodiamond particles have a positive zeta potential, measured by laser Doppler electrophoresis at 25°C. water as a lubricating base material; and hydrogen-reduced nanodiamond particles, wherein the hydrogen-reduced nanodiamond particles are present in a content of 0.1% by mass or less, and wherein the hydrogen-reduced nanodiamond particles have a positive zeta potential, measured by laser Doppler electrophoresis at 25°C.
A space system comprising a structure formed by structure components, an on-board equipment carried by the structure, and a passive device designed to facilitate early demise of the space system during re-entry into the Earth's atmosphere; the passive device comprises a plurality of connecting members designed to stably connect the structure components to each other; each connecting member comprises a plurality of connecting components (6, 7, 13, 14) designed to mate with each other so as to create a stable connection between a corresponding pair of structure components during launch and orbit operation of the space system; wherein at least one primer component of the plurality of connecting components (6, 7, 13, 14) of a connecting member of the plurality of connecting members is made of a primer material which is different from that of the other connecting components (6, 7, 13) of the connecting member of the plurality of connecting members and whose characteristics are such as to decay at re-entry altitudes higher, that is at temperatures lower, than those at which the characteristics of the materials of the other connecting components (6, 7, 13) decay, so as to loosen in advance the stable connection created by the connecting member during re-entry of the space system into the Earth's atmosphere to such an extent as to allow the two structure components to disconnected from each other, thus early triggering demise of the structure of the space system.
Arrangement for safe data communication via a non-safe network with a safe data transmitter that transmits safe data (20, 30, 31, 32) according to a safety protocol encapsulated in the network protocol via the network to a safe data receiver, wherein the network protocol defines a network protocol-specific data packet with payload data of the network protocol and with network protocol-specific data (22, 23) and wherein safe data (20, 30, 31, 32) comprises payload data of a safety protocol and data in accordance to the specifications of the safety protocol, which implements error detection and error correction mechanisms to guarantee the safe data communication, and wherein the safe data transmitter transmits the safe data (20, 30, 31, 32) as message of the safety protocol, characterized in that a network protocol-dependent transmitter optimization device connected to the network is provided on the transmitter side, which device receives the safe data (20, 30, 31, 32) with the payload data of a safety protocol and data in accordance to the specifications of the safety protocol from the safe data transmitter and, before transfer to the network and independent of the safety protocol, subdivides or combines them on payload data of network protocol-specific data packets of specific predetermined payload lengths, that the network protocol-dependent transmitter optimization device transmits the network protocol-specific data packet then to the network for transmitting them to the safe data receiver in accordance to the schema of the network, and that a network protocol-dependent receiver optimization device connected to the network is provided on the receiver side, which device extracts or assembles the safe data (20, 30, 31, 32) from the payload data of the network protocol-specific data packets and forwards these data to the safe data receiver.
Device for producing and/or applying an essentially two-dimensional composite formed of at least two areal regions (1, 2), at least one of which is formed of a hot-melt adhesive, in predeterminable composite width, predeterminable composite height and/or predeterminable composite length, said device comprising a transporting appliance having a transport area and defining a transport direction (y) and also an applicator appliance having a coextrusion die which includes a slot-shaped outlet disposed essentially transversely to the application direction (y) and with which the first areal region comprising a first extrudate and the second areal region comprising a second extrudate is extrudable onto the transport area, wherein the coextrusion die comprises at least one conveying appliance (22, 22') for conveying an extrudate (21, 21') onto the transport area, wherein the conveyed volume, the conveyed mass, the conveyance velocity and/or the metering time of at least one of the extrudates (21, 21') is controllable using the conveying appliance, wherein the coextrusion die is configured and arranged such that the coextrudate leaving the coextrusion die is formed as a vertical or almost vertical falling curtain onto the transporting appliance or onto a substrate conveyable on the transport area in the transport direction (y) and wherein the coextrusion die comprises a coextrusion channel which is disposed in a housing of the coextrusion die, wherein first and second inlets (20, 20') for the first and second extrudates (21, 21') empty into the coextrusion channel and wherein the outlet for the coextrudate is connected to the coextrusion channel, wherein the areal regions (1, 2) form layers of the composite which are stacked one on top of the other along the composite height, characterized in that the coextrusion channel comprises a plurality of coextrusion chambers (19A, 19B,..., 19A', 19B',...), wherein each and every coextrusion chamber (19A, 19B,..., 19A', 19B',...) of the coextrusion channel is in each case in fluidic communication with at least one conveying appliance (22; 22').
A silicon-oxygen compound, wherein the silicon-oxygen compound has a chemical formula of SiO x, in which 0 <x <2, characterized in that, the silicon-oxygen compound contains both sulfur and manganese element, and a content of the sulfur element is 20 ppm-600 ppm; and a mass ratio of the sulfur element to the manganese element is from 1.5 to 10.0.
A glass having improved solarization resistance which comprises SnO 2 and at a wavelength of 1050 nm has an attenuation of ≤1300 dB/km, wherein the glass comprises the following components in % by weight from to B 2 O 3 0.1 <5 SiO 2 23 35 Al 2 O 3 0 1 Li 2 O 0.2 4 Na 2 O 0 <3 K 2 O 0 3 BaO 5 35 ZnO 8 25 La 2 O 3 10 25 ZrO 2 0.5 9 HfO 2 0.01 2 SnO 2 0.01 2 CaO 0 3 SrO 0 1 Ta 2 O 5 0 22
An absorbent article for absorbing blood comprising a liquid-permeable top sheet, a liquid-impermeable back sheet and an absorbent body between the liquid-permeable top sheet and liquid-impermeable back sheet, the absorbent article having a lengthwise direction and a widthwise direction, wherein the absorbent article has in the excretory opening contact region a domed section that protrudes in the thickness direction of the absorbent article, the domed section includes part of the top sheet and a cushion section disposed between the top sheet and the absorbent body, the cushion section has a maximum thickness of 3 to 30 mm, the cushion section has a length of about 30 to about 300 mm in the lengthwise direction and a length of about 10 to about 100 mm in the widthwise direction, the absorbent body has one or more embossed sections formed by embossing the absorbent body either continuously or intermittently in the lengthwise direction of the absorbent article, at a center section in the widthwise direction of the absorbent body the one or more embossed sections form a folding axis for folding the absorbent article in the widthwise direction so that the skin contact surface of the top sheet protrudes outward, and the absorbent body has a furrow along the folding axis on the back sheet side, and the back sheet is indented along the furrow. wherein the absorbent article has in the excretory opening contact region a domed section that protrudes in the thickness direction of the absorbent article, the domed section includes part of the top sheet and a cushion section disposed between the top sheet and the absorbent body, the cushion section has a maximum thickness of 3 to 30 mm, the cushion section has a length of about 30 to about 300 mm in the lengthwise direction and a length of about 10 to about 100 mm in the widthwise direction, the absorbent body has one or more embossed sections formed by embossing the absorbent body either continuously or intermittently in the lengthwise direction of the absorbent article, at a center section in the widthwise direction of the absorbent body the one or more embossed sections form a folding axis for folding the absorbent article in the widthwise direction so that the skin contact surface of the top sheet protrudes outward, and the absorbent body has a furrow along the folding axis on the back sheet side, and the back sheet is indented along the furrow.
A method of producing a metallized substrate, wherein the substrate at least partially and preferably entirely comprises aluminum and/or an aluminum alloy, characterised in that a conductor paste comprising at least a metal powder as an electrically conductive agent, an inorganic powder as a bonding agent and organic binding and dissolving agents is applied at least region-wise to a surface of the substrate, in a first firing phase (B 1) the conductor paste is exposed to a substantially continuously increasing firing temperature, wherein in the first firing phase (B 1) the firing temperature is increased at least temporarily by between about 40°C/min and about 60°C/min, wherein the firing temperature is increased to a predeterminable maximum firing temperature (T max) of less than 660°C, wherein the conductor paste is heated over between 400°C and 450°C, in a second firing phase (B 2) the conductor paste is exposed substantially to the predeterminable maximum firing temperature (T max) for a predeterminable period of time (t B), in a cooling phase the conductor paste is cooled down and in a post-treatment phase a surface of the conductor paste is mechanically post-treated, preferably brushed.
A compound having the formula: wherein Ar 1 and Ar 2 are independently selected from: wherein each X is independently selected from N and CH; wherein each Y is independently selected from S and O; wherein each Q is independently selected from hydrogen, halogen, nitro, and C 1 -C 4 alkyl; wherein Ar 1 and Ar 2 are different; wherein Ar 1 and Ar 2 have a cis relationship; wherein R 1 is selected from hydrogen and C 1 -C 4 alkyl and substituted with 0-2 groups selected from halogen, alkoxy, carboxymethyl, carboxyethyl, trifluoromethyl, trifluoromethoxy, and -SO 2 Me; wherein R 2, R 3, and R 5 are independently selected from hydrogen, halogen, methyl, ethyl, n-propyl, i-propyl, n-butyl, i-butyl, t-butyl, trifluoromethyl, trifluoroethyl, methoxy, ethoxy, n-propoxyl, i-propoxyl, n-butoxyl, i-butoxyl, and t-butoxyl; wherein R 4a -R 4e are independently selected from hydrogen, halogen, alkyl, trifluoromethyl, trifluoromethoxy, alkoxy, and -SO 2 Me; wherein R 6a and R 6b are independently selected from hydrogen and C 1 -C 4 alkyl, or wherein R 6a and R 6b together comprise =O; wherein R 7 and R 8 are hydrogen; wherein R 9 is selected from hydrogen, halogen, methyl, ethyl, methoxy, ethoxy, carboxymethyl, and carboxyethyl; wherein R 10 is selected from C 1 -C 4 alkyl and Ar 3; and wherein Ar 3 is selected from: or a pharmaceutically acceptable salt thereof. wherein each X is independently selected from N and CH; wherein each Y is independently selected from S and O; wherein each Q is independently selected from hydrogen, halogen, nitro, and C 1 -C 4 alkyl; wherein Ar 1 and Ar 2 are different; wherein Ar 1 and Ar 2 have a cis relationship; wherein R 1 is selected from hydrogen and C 1 -C 4 alkyl and substituted with 0-2 groups selected from halogen, alkoxy, carboxymethyl, carboxyethyl, trifluoromethyl, trifluoromethoxy, and -SO 2 Me; wherein R 2, R 3, and R 5 are independently selected from hydrogen, halogen, methyl, ethyl, n-propyl, i-propyl, n-butyl, i-butyl, t-butyl, trifluoromethyl, trifluoroethyl, methoxy, ethoxy, n-propoxyl, i-propoxyl, n-butoxyl, i-butoxyl, and t-butoxyl; wherein R 4a -R 4e are independently selected from hydrogen, halogen, alkyl, trifluoromethyl, trifluoromethoxy, alkoxy, and -SO 2 Me; wherein R 6a and R 6b are independently selected from hydrogen and C 1 -C 4 alkyl, or wherein R 6a and R 6b together comprise =O; wherein R 7 and R 8 are hydrogen; wherein R 9 is selected from hydrogen, halogen, methyl, ethyl, methoxy, ethoxy, carboxymethyl, and carboxyethyl; wherein R 10 is selected from C 1 -C 4 alkyl and Ar 3; and wherein Ar 3 is selected from: or a pharmaceutically acceptable salt thereof.