mhurhangee/patent-ind-claim-en huggingface dataset:
Heat exchanger comprising: at least a first module and a second module for heat exchange between a first fluid medium and a second fluid medium, wherein the first fluid medium can be conducted through a closed channel system separately from the second fluid medium, wherein the second fluid medium can flow around the closed channel system, and wherein the second fluid medium is gaseous; a first wetting device for the first module; and a second wetting device for the second module; wherein by means of the first and second wetting devices the first and second modules can be wetted with a third fluid medium; wherein the first wetting device for the first module can be actuated independently of the second wetting device for the second module ; and a temperature control for adjusting the cooling capacity by connecting each of the first or second wetting devices ; characterized in that the temperature control comprises a temperature measuring device which detects the temperature of the second medium. at least a first module and a second module for heat exchange between a first fluid medium and a second fluid medium, wherein the first fluid medium can be conducted through a closed channel system separately from the second fluid medium, wherein the second fluid medium can flow around the closed channel system, and wherein the second fluid medium is gaseous; a first wetting device for the first module; and a second wetting device for the second module; wherein by means of the first and second wetting devices the first and second modules can be wetted with a third fluid medium; wherein the first wetting device for the first module can be actuated independently of the second wetting device for the second module ; and a temperature control for adjusting the cooling capacity by connecting each of the first or second wetting devices ; characterized in that the temperature control comprises a temperature measuring device which detects the temperature of the second medium.
Composition comprising i. a pectinolytic enzyme and ii. polyvinylpyrrolidone wherein the pectinolytic enzyme is a pectate lyase. i. a pectinolytic enzyme and ii. polyvinylpyrrolidone
A solid polymer blend product obtainable by a process consisting of the following steps a) providing a mixture comprising: • 0.5 to 7 percent by weight of glycerine; • 5 to 25 percent by weight of an ABS (acrylonitrile-butadiene-styrene) copolymer; • 5 to 25 percent by weight of a PBT (polybutylene terephthalate) polymer; • 48 to 89.5 percent by weight of a PET (polyethylene terephthalate) polymer; and • 0 to 5 percent by weight of polymer additives; wherein the sum of the amounts of the components listed above is 100 percent by weight; b) subjecting the mixture from step (a) to an extrusion process at elevated temperatures; c) cooling and granulating the product from step (b) into a granulate; and optionally d) subjecting the granulate from step (c) to a milling step to obtain the product in the form of particles having a mean average particle size of from 01 μm to 200 μm, or from 1 μm to 25 μm, or 1 μm to 10 μm, or 8 μm to 10 μm, wherein the mean average particle size is determined according to the method described in the present specification. a) providing a mixture comprising: • 0.5 to 7 percent by weight of glycerine; • 5 to 25 percent by weight of an ABS (acrylonitrile-butadiene-styrene) copolymer; • 5 to 25 percent by weight of a PBT (polybutylene terephthalate) polymer; • 48 to 89.5 percent by weight of a PET (polyethylene terephthalate) polymer; and • 0 to 5 percent by weight of polymer additives; wherein the sum of the amounts of the components listed above is 100 percent by weight; • 0.5 to 7 percent by weight of glycerine; • 5 to 25 percent by weight of an ABS (acrylonitrile-butadiene-styrene) copolymer; • 5 to 25 percent by weight of a PBT (polybutylene terephthalate) polymer; • 48 to 89.5 percent by weight of a PET (polyethylene terephthalate) polymer; and • 0 to 5 percent by weight of polymer additives; b) subjecting the mixture from step (a) to an extrusion process at elevated temperatures; c) cooling and granulating the product from step (b) into a granulate; and optionally d) subjecting the granulate from step (c) to a milling step to obtain the product in the form of particles having a mean average particle size of from 01 μm to 200 μm, or from 1 μm to 25 μm, or 1 μm to 10 μm, or 8 μm to 10 μm, wherein the mean average particle size is determined according to the method described in the present specification.
A pneumatic tire, comprising: a tread ; at least one layer adjacent to the tread, wherein the layer comprises at least one cord ; the at least one cord comprising braided strands of yarn of a substantially non-elastic material, wherein the braided strands of yarn cross each other in alternating, opposing directions; characterized in that the braided strands of yarn (21, 22,2 3) are steel or fiberglass filaments, and the cord has from about 1 to about 5 stitches per cm. a tread ; at least one layer adjacent to the tread, wherein the layer comprises at least one cord ; the at least one cord comprising braided strands of yarn of a substantially non-elastic material, wherein the braided strands of yarn cross each other in alternating, opposing directions; characterized in that the braided strands of yarn (21, 22,2 3) are steel or fiberglass filaments, and the cord has from about 1 to about 5 stitches per cm.
Process for making an electrode active material comprising the steps of: (a) mixing a composite oxide, (oxy)hydroxide, hydroxide or carbonate of nickel and at least one of cobalt and manganese and, optionally, at least one of Mg, Al and Y or a transition metal selected from Ti, Zr, Nb, Ta, Fe, Mo, and W, with at least one source of lithium selected from lithium carbonate, lithium oxide and lithium hydroxide and, optionally, with at least one dopant selected from oxides, hydroxides and oxyhydroxides of Mg, Al, Y, Ti, Zr, Nb, Ta, Fe, Mo, and W, and from fluorides, (b) optionally, transferring said mixture into saggars, crucibles or open cups, (c) calcining said mixture in a pusher kiln or roller hearth kiln or in a rotary kiln at a temperature in the range of from 700 to 1000°C, (d) cooling down the resultant electrode active material, (e) applying a robot to take at least two samples of 10 mg to 10 g per saggar, crucible or open cup to be analyzed, or per defined period of time, respectively, (f) transferring said samples to another robot or to another part of the same robot, where the respective robot makes an electrode material mix from electrode material samples of the same saggar, crucible or open cup, and (g) transferring the electrode material mix to a test unit to perform electrochemical tests, wherein the robot performs steps (f) to (g) with several samples in parallel. (a) mixing a composite oxide, (oxy)hydroxide, hydroxide or carbonate of nickel and at least one of cobalt and manganese and, optionally, at least one of Mg, Al and Y or a transition metal selected from Ti, Zr, Nb, Ta, Fe, Mo, and W, with at least one source of lithium selected from lithium carbonate, lithium oxide and lithium hydroxide and, optionally, with at least one dopant selected from oxides, hydroxides and oxyhydroxides of Mg, Al, Y, Ti, Zr, Nb, Ta, Fe, Mo, and W, and from fluorides, (b) optionally, transferring said mixture into saggars, crucibles or open cups, (c) calcining said mixture in a pusher kiln or roller hearth kiln or in a rotary kiln at a temperature in the range of from 700 to 1000°C, (d) cooling down the resultant electrode active material, (e) applying a robot to take at least two samples of 10 mg to 10 g per saggar, crucible or open cup to be analyzed, or per defined period of time, respectively, (f) transferring said samples to another robot or to another part of the same robot, where the respective robot makes an electrode material mix from electrode material samples of the same saggar, crucible or open cup, and (g) transferring the electrode material mix to a test unit to perform electrochemical tests,
A posture shirt designed for controlling posture, which is obtained by weaving with areas with diversified traction, intended, according to the zones, to ensure stimulation of the muscles responsible for controlling posture in order to restore a correct attitude in subjects affected by disabling pathologies such as hyperkyphotic dysmorphisms, said shirt comprising at the top a collar , characterised in that it comprises a substantially rigid strip , fixable to the wearer's waist, associated with a pocket formed in the dorsal zone of the shirt located along the spinal column, wherein a reinforcement element or bar is insertable, the reinforcement element or bar representing a dorsal support terminating at the top with a slide that is slidable vertically along the median axis of the bar.
Closed-chamber thermoforming machine , comprising: a table device , displaceable along a displacement direction , for a forming tool ; and at least one drive device ; wherein the thermoforming machine has a closed machine housing , which is sealed off during operation of the thermoforming machine , and this makes it possible to prevent sagging of a heated starting material for a workpiece to be produced, by selecting a suitable internal pressure; wherein the thermoforming machine further has a clamping frame , arranged above the machine housing and displaceable along a displacement direction , for clamping the starting material in place in a clamping plane ; wherein the displacement direction of the table device and the displacement direction of the clamping frame each extend substantially parallel to a vertical direction (V) and substantially perpendicular to the clamping plane ; wherein the drive direction is formed as a clamping frame drive device for driving the clamping frame for displacement thereof, or a plurality of the drive devices are provided, and comprise a clamping frame drive device or a plurality of clamping frame drive devices for driving the clamping frame to displace it; and wherein the at least one drive device is arranged substantially between the clamping plane in which the starting material can be clamped and a plane defined by the lower edge of the displaceable table device in an upper displacement position of the displaceable table device . a table device , displaceable along a displacement direction , for a forming tool ; and at least one drive device ; wherein the thermoforming machine has a closed machine housing , which is sealed off during operation of the thermoforming machine , and this makes it possible to prevent sagging of a heated starting material for a workpiece to be produced, by selecting a suitable internal pressure; wherein the thermoforming machine further has a clamping frame , arranged above the machine housing and displaceable along a displacement direction , for clamping the starting material in place in a clamping plane ; wherein the displacement direction of the table device and the displacement direction of the clamping frame each extend substantially parallel to a vertical direction (V) and substantially perpendicular to the clamping plane ; wherein the drive direction is formed as a clamping frame drive device for driving the clamping frame for displacement thereof, or a plurality of the drive devices are provided, and comprise a clamping frame drive device or a plurality of clamping frame drive devices for driving the clamping frame to displace it; and wherein the at least one drive device is arranged substantially between the clamping plane in which the starting material can be clamped and a plane defined by the lower edge of the displaceable table device in an upper displacement position of the displaceable table device .
Extension adapter of a plug-in coupling, with which a free space between a male coupling element arranged on a first component and at least one female coupling element arranged on a second component is bridgeable in a connecting manner, and which has the following features: a. at least one male coupling end which is pluggable into the at least one female coupling element , b. a female coupling end in which the male coupling element is receivable and which is connected to the at least one male coupling end via an intermediate piece , and c. a locking element which is displaceably arranged in axial direction of the extension adapter with which, in a locking position (V) at least partially surrounding the female coupling end , a releasing of a male coupling element from the female coupling end is prevented. a. at least one male coupling end which is pluggable into the at least one female coupling element , b. a female coupling end in which the male coupling element is receivable and which is connected to the at least one male coupling end via an intermediate piece , and c. a locking element which is displaceably arranged in axial direction of the extension adapter with which, in a locking position (V) at least partially surrounding the female coupling end , a releasing of a male coupling element from the female coupling end is prevented.
A battery module, comprising: a cell holder having a plurality of battery cell insertion portions and at least one fire extinguishing cell insertion portion ; a plurality of battery cells respectively located in the battery cell insertion portions ; and at least one fire extinguishing cell located in the fire extinguishing cell insertion portion , wherein the fire extinguishing cell includes: an agent tube configured to accommodate a fire extinguishing agent; a tube case configured to accommodate the agent tube through an opening formed in at least one of upper and lower ends thereof; and a case cover configured to cover the opening, characterized in that the agent tube is made of a resin melting at a reference temperature, and thereby is configured to break and eject the fire extinguishing agent when a temperature inside of the battery module reaches the reference temperature or above. a cell holder having a plurality of battery cell insertion portions and at least one fire extinguishing cell insertion portion ; a plurality of battery cells respectively located in the battery cell insertion portions ; and at least one fire extinguishing cell located in the fire extinguishing cell insertion portion , wherein the fire extinguishing cell includes: an agent tube configured to accommodate a fire extinguishing agent; a tube case configured to accommodate the agent tube through an opening formed in at least one of upper and lower ends thereof; and a case cover configured to cover the opening, characterized in that the agent tube is made of a resin melting at a reference temperature, and thereby is configured to break and eject the fire extinguishing agent when a temperature inside of the battery module reaches the reference temperature or above. an agent tube configured to accommodate a fire extinguishing agent; a tube case configured to accommodate the agent tube through an opening formed in at least one of upper and lower ends thereof; and a case cover configured to cover the opening, characterized in that the agent tube is made of a resin melting at a reference temperature, and thereby is configured to break and eject the fire extinguishing agent when a temperature inside of the battery module reaches the reference temperature or above.
A process cartridge (P) detachably mountable to a main assembly of an electrophotographic image forming apparatus , said process cartridge comprising: a photosensitive member ; a photosensitive member frame rotatably supporting said photosensitive member; a developing roller for developing a latent image formed on said photosensitive member; and a developing device frame rotatably supporting said developing roller and connected with said photosensitive member frame so as to be rotatable between a contacting position in which said developing roller is contacted with said photosensitive member and a spacing position in which said developing roller is spaced from said photosensitive member; the process cartridge being characterized by further comprising a first drive transmission member (37; 74; 474; 8074; 8174) rotatable about a rotation axis about which said developing device frame is rotatable relative to said photosensitive member frame and capable of receiving a rotational force from the main assembly; a second drive transmission member (71; 571; 8071; 8171) rotatable about the rotation axis and capable of connecting with said first drive transmission member and transmitting the rotational force to said developing roller; and a disconnecting mechanism for disconnecting between said first drive transmission member and said second drive transmission member in accordance with rotation of the developing device frame from the contacting position to said spacing position. a photosensitive member ; a photosensitive member frame rotatably supporting said photosensitive member; a developing roller for developing a latent image formed on said photosensitive member; and a developing device frame rotatably supporting said developing roller and connected with said photosensitive member frame so as to be rotatable between a contacting position in which said developing roller is contacted with said photosensitive member and a spacing position in which said developing roller is spaced from said photosensitive member; the process cartridge being characterized by further comprising a first drive transmission member (37; 74; 474; 8074; 8174) rotatable about a rotation axis about which said developing device frame is rotatable relative to said photosensitive member frame and capable of receiving a rotational force from the main assembly; a second drive transmission member (71; 571; 8071; 8171) rotatable about the rotation axis and capable of connecting with said first drive transmission member and transmitting the rotational force to said developing roller; and a disconnecting mechanism for disconnecting between said first drive transmission member and said second drive transmission member in accordance with rotation of the developing device frame from the contacting position to said spacing position.
A vehicle filtering assembly configured to receive an inlet air , the filtering assembly comprising a modulation panel subassembly , an air filter subassembly , an actuator , and an arm subassembly , wherein: the modulation panel subassembly includes a first upstream modulation panel and a second downstream modulation panel , where the first upstream and second downstream modulation panels are configured to articulate with one another to move the modulation panel subassembly between a folded position and an extended position; the air filter subassembly is downstream of the modulation panel subassembly ; the air filter subassembly is configured to discharge the inlet air from the filtering assembly while positioned at an air outlet side ; the actuator is upstream of the air filter subassembly and connected with the arm subassembly; and the arm subassembly is configured to, via the actuator, move the modulation panel subassembly between the folded position and the extended position to move the first and second modulation panels into and out of the flow of inlet air to change a size of a cross-section of an air inlet into an air duct , and to move the air filter subassembly into and out of a flow of the inlet air, wherein the first upstream modulation panel and the second downstream modulation panel are positioned in an end-to-end relationship, characterised in that the first upstream modulation panel and the second downstream modulation panel are configured to articulate about a hinge between the first upstream modulation panel and the second downstream modulation panel . the modulation panel subassembly includes a first upstream modulation panel and a second downstream modulation panel , where the first upstream and second downstream modulation panels are configured to articulate with one another to move the modulation panel subassembly between a folded position and an extended position; the air filter subassembly is downstream of the modulation panel subassembly ; the air filter subassembly is configured to discharge the inlet air from the filtering assembly while positioned at an air outlet side ; the actuator is upstream of the air filter subassembly and connected with the arm subassembly; and the arm subassembly is configured to, via the actuator, move the modulation panel subassembly between the folded position and the extended position to move the first and second modulation panels into and out of the flow of inlet air to change a size of a cross-section of an air inlet into an air duct , and to move the air filter subassembly into and out of a flow of the inlet air, wherein the first upstream modulation panel and the second downstream modulation panel are positioned in an end-to-end relationship, characterised in that the first upstream modulation panel and the second downstream modulation panel are configured to articulate about a hinge between the first upstream modulation panel and the second downstream modulation panel .
A washable absorbent garment comprising: - a back layer of washable fabric forming a pant structure and having rear and front waist sections and a crotch section intermediate between the rear and front waist sections , wherein the rear and front waist sections have respective side edges joined to each other, - a washable absorbent core including a washable absorbent pad comprising washable superabsorbent fibers, and - a top layer of washable fabric which covers the washable absorbent core , characterized in that the washable absorbent core comprises a functionalizing material selected from a group consisting of: graphene, graphene oxide, reduced graphene oxide, and combinations thereof. - a back layer of washable fabric forming a pant structure and having rear and front waist sections and a crotch section intermediate between the rear and front waist sections , wherein the rear and front waist sections have respective side edges joined to each other, - a washable absorbent core including a washable absorbent pad comprising washable superabsorbent fibers, and - a top layer of washable fabric which covers the washable absorbent core ,