mhurhangee/patent-ind-claim-en huggingface dataset:
A microfluidic droplet generation device, the device comprising: a droplet generation zone ; a dispersed-phase input channel coupled to the droplet generation zone at a first junction ; an output channel coupled to the droplet generation zone at a second junction ; a first and a second break channel intersecting the dispersed-phase input channel at the first junction ; a first and a second bypass channel intersecting the output channel at the second junction ; a first continuous-phase input channel coupled to the first bypass channel ; and a second continuous-phase input channel coupled to the second bypass channel , the microfluidic droplet generation device characterized by first and second connecting channels intersecting the droplet generation zone between the first junction and the second junction , wherein the first and second connecting channels respectively connect the first and second bypass channels to the droplet generation zone , and wherein the first continuous-phase input channel is coupled to the first break channel and the first connecting channel and the second continuous-phase input channel is coupled to the second break channel and the second connecting channel . a droplet generation zone ; a dispersed-phase input channel coupled to the droplet generation zone at a first junction ; an output channel coupled to the droplet generation zone at a second junction ; a first and a second break channel intersecting the dispersed-phase input channel at the first junction ; a first and a second bypass channel intersecting the output channel at the second junction ; a first continuous-phase input channel coupled to the first bypass channel ; and a second continuous-phase input channel coupled to the second bypass channel , the microfluidic droplet generation device characterized by first and second connecting channels intersecting the droplet generation zone between the first junction and the second junction ,
A composition for cleaning contaminants from semiconductor wafers following chemical-mechanical polishing, the composition comprising: (a) a bulky protecting ligand selected from maleic acid, ethylenediaminetetraacetic acid (EDTA), nitrilotriacetic acid (NTA), hydroxyethane diphosphoric acid (HEDA), ethylenediaminetetramethylene phosphoric acid, amino tris(methylene phosphoric acid) (ATMP), hydroxyethyliminodiacetic acid (HIDA), diethylenetriaminepentaacetic acid (DPTA), cysteine (Cys), ascorbic acid (Asc), choline hydroxide, quaternary ammonium hydroxide, and combinations thereof, (b) one or more organic amines, (c) one or more organic inhibitors selected from carbohydrazide (CHZ), diethylhydroxylamine (DEHA) or a combination thereof, and (d) water, wherein the one or more organic amines are present in an amount of from about 0.01 wt.% to about 5 wt.% based on the total weight of the composition, the bulky protecting ligand or combinations thereof are present in an amount of at least 3 wt.% based on the total weight of the composition, the weight ratio of the bulky protecting ligand(s) to the organic amine(s) is about 1:1 or higher, and the composition has a pH of from about 9 to about 13. (a) a bulky protecting ligand selected from maleic acid, ethylenediaminetetraacetic acid (EDTA), nitrilotriacetic acid (NTA), hydroxyethane diphosphoric acid (HEDA), ethylenediaminetetramethylene phosphoric acid, amino tris(methylene phosphoric acid) (ATMP), hydroxyethyliminodiacetic acid (HIDA), diethylenetriaminepentaacetic acid (DPTA), cysteine (Cys), ascorbic acid (Asc), choline hydroxide, quaternary ammonium hydroxide, and combinations thereof, (b) one or more organic amines, (c) one or more organic inhibitors selected from carbohydrazide (CHZ), diethylhydroxylamine (DEHA) or a combination thereof, and (d) water, wherein the one or more organic amines are present in an amount of from about 0.01 wt.% to about 5 wt.% based on the total weight of the composition, the bulky protecting ligand or combinations thereof are present in an amount of at least 3 wt.% based on the total weight of the composition, the weight ratio of the bulky protecting ligand(s) to the organic amine(s) is about 1:1 or higher, and the composition has a pH of from about 9 to about 13.
A lubricating composition comprising in admixture: at least 45 wt. % of a Group V base oil component, based on the total weight of the blend components that are used to produce the lubricating composition, wherein the Group V base oil component is one or more alkylnaphthalenes, and with the Group V base oil component having a kinematic viscosity of less than 20 cSt at 100°C; and from 10 wt. % to 60 wt. % of a polyolefin base oil component, based on the total weight of the blend components that are used to produce the lubricating composition, with the polyolefin base oil component having a kinematic viscosity of at least 500 cSt and not greater than 4000 cSt at 100°C. at least 45 wt. % of a Group V base oil component, based on the total weight of the blend components that are used to produce the lubricating composition, wherein the Group V base oil component is one or more alkylnaphthalenes, and with the Group V base oil component having a kinematic viscosity of less than 20 cSt at 100°C; and from 10 wt. % to 60 wt. % of a polyolefin base oil component, based on the total weight of the blend components that are used to produce the lubricating composition, with the polyolefin base oil component having a kinematic viscosity of at least 500 cSt and not greater than 4000 cSt at 100°C.
Method for reserving physical resource blocks of a mobile access network (MAN), implemented by a content server configured to transmit a data stream requested by a terminal connected to the mobile access network with a determined quality level, the method comprising: • determination (E1a, E1b; C6a, C6b) of a value of a number of blocks to be reserved, as a function of parameters related to the data stream, of the determined quality level, and of a unit cost per block, • transmission (E2a, E2b; C7a, C7b) of a resource block reservation request, comprising the determined value of the number of blocks to be reserved, to a control entity of the mobile access network, • reception (E5a, E5b) of a resource block allocation response from the control entity, comprising a value of a number of blocks allocated to the content server. • determination (E1a, E1b; C6a, C6b) of a value of a number of blocks to be reserved, as a function of parameters related to the data stream, of the determined quality level, and of a unit cost per block, • transmission (E2a, E2b; C7a, C7b) of a resource block reservation request, comprising the determined value of the number of blocks to be reserved, to a control entity of the mobile access network, • reception (E5a, E5b) of a resource block allocation response from the control entity, comprising a value of a number of blocks allocated to the content server.
Sensor housing assembly , the sensor housing assembly comprising a first housing part and a second housing part , wherein the second housing part comprises a sensor accommodation volume , a measurement object receptacle and an alignment funnel , the sensor accommodation volume being configured to receive a sensor , the measurement object receptacle being configured to receive a measurement object and extending along a measurement object insertion direction from adjacent the sensor accommodation volume into the alignment funnel , the alignment funnel widening along the measurement object insertion direction in a direction which points away from the measurement object receptacle , and wherein, in an assembled state, the second housing part is movable relative to the first housing part in at least one adjustment direction (x, y) perpendicular to the measurement object insertion direction .
A wind instrument comprising a musical instrument body including a tube body and a key unit that is detachably attached to the musical instrument body , wherein the key unit comprises: a base portion including a plurality of positioning portions provided spaced apart from each other for positioning with respect to the musical instrument body; a plurality of key posts that project from the base portion ; at least one key shaft attached to the plurality of key posts ; and a plurality of keys attached to the at least one key shaft , characterized in that the plurality of key posts is integral with the base portion , and each of the at least one key shaft is integrally formed with at least one of the plurality of keys . a base portion including a plurality of positioning portions provided spaced apart from each other for positioning with respect to the musical instrument body; a plurality of key posts that project from the base portion ; at least one key shaft attached to the plurality of key posts ; and a plurality of keys attached to the at least one key shaft , the plurality of key posts is integral with the base portion , and each of the at least one key shaft is integrally formed with at least one of the plurality of keys .
Backplane device for a spatial light modulator , especially a spatial light modulator in a display device for generating a two-dimensional and/or three-dimensional representation of a scene or of content, the spatial light modulator comprising pixels having pixel addresses and being electronically controllable by the backplane device with actively controllable switching elements for assigning pixel values with a bit depth greater than one to the pixels , the backplane device comprising at least one analog line and at least one pixel addressing means , wherein such a pixel addressing means comprises x-addressing lines and y-addressing lines , wherein every pixel is connected to an analog line , to an x-addressing line and to a y-addressing line , the backplane device further comprising a generating means as a pixel value assigning scheme adapted to generate a voltage characteristic to be applied to the at least one analog line , characterized in that the voltage characteristic is variable in time and has predominantly the characteristic of a mathematically monotonic function which comprises essentially the shape of a ramp up function for one frame and comprises essentially a ramp down function for the subsequent frame and depends on the pixel values and a pixel value distribution to be assigned to the pixels , wherein the backplane device is adapted such that an order of the pixel addresses is determined depending on the generated voltage characteristic as a pixel addressing scheme and such that the generated voltage characteristic is applied to the at least one analog line for the purpose of assigning the pixel values to the pixels .
A moisture reactive hot melt adhesive composition that is the product of a mixture comprising a polyisocyanate, at least one polyether polyol polymer, an acrylic polymer, an inorganic filler and a polyester diol having a structure of Formula 1 or of Formula 2; wherein Formula 1 is: H-[O(CH 2 ) m OOC (CH 2 ) n CO] k -O(CH 2 ) m -OH ; m and n are each an even integer; m + n = 8; m and n are each independently selected from 2, 4 or 6; k is an integer from 9 to 55; and the polyester diol of Formula 1 has a number average molecular weight of 2,000 to 11,000 Daltons determined by gel permeation chromatography according to DIN 55672 with THF as the eluent; and Formula 2 is: HO-[(CH 2 ) 5 COO] p -R 1 -[OOC(CH 2 ) 5 ] q -OH; Ri is an initiator; p is an integer from 0 to 96; q is an integer from 0 to 96; p + q = 16 to 96; and the polyester diol has a number average molecular weight of 2,000 to 11,000 Daltons determined by gel permeation chromatography according to DIN 55672 with THF as the eluent, wherein the polyester diol is present in an amount of from 10 to 35% by weight based on the total adhesive weight. wherein Formula 1 is: H-[O(CH 2 ) m OOC (CH 2 ) n CO] k -O(CH 2 ) m -OH ; m and n are each an even integer; m + n = 8; m and n are each independently selected from 2, 4 or 6; k is an integer from 9 to 55; and the polyester diol of Formula 1 has a number average molecular weight of 2,000 to 11,000 Daltons determined by gel permeation chromatography according to DIN 55672 with THF as the eluent; and Formula 2 is: HO-[(CH 2 ) 5 COO] p -R 1 -[OOC(CH 2 ) 5 ] q -OH; Ri is an initiator; p is an integer from 0 to 96; q is an integer from 0 to 96; p + q = 16 to 96; and the polyester diol has a number average molecular weight of 2,000 to 11,000 Daltons determined by gel permeation chromatography according to DIN 55672 with THF as the eluent, wherein the polyester diol is present in an amount of from 10 to 35% by weight based on the total adhesive weight.
A mobile molding system, comprising: a vehicle; and one or more molds arranged on the vehicle configured for receiving one or more expandable nonwoven substrates , heating said one or more expandable nonwoven substrates so as to cause said one or more expandable nonwoven substrates to expand and fill the one or more molds with one or more expanded nonwoven containing articles of three dimensional shape , and releasing said one or more expanded nonwoven containing articles of three dimensional shape from the one or more molds , characterized in that the system further comprises one or more expandable nonwoven substrates provided on the vehicle, wherein the one or more expandable nonwoven substrates are formed by compressing a nonwoven substrate with a binder material; applying heat to melt the binder material; and allowing the binder material to cool and solidify to form a pre-compressed expandable nonwoven substrate. a vehicle; and one or more molds arranged on the vehicle configured for receiving one or more expandable nonwoven substrates , heating said one or more expandable nonwoven substrates so as to cause said one or more expandable nonwoven substrates to expand and fill the one or more molds with one or more expanded nonwoven containing articles of three dimensional shape , and releasing said one or more expanded nonwoven containing articles of three dimensional shape from the one or more molds , characterized in that the system further comprises one or more expandable nonwoven substrates provided on the vehicle, wherein the one or more expandable nonwoven substrates are formed by compressing a nonwoven substrate with a binder material; applying heat to melt the binder material; and allowing the binder material to cool and solidify to form a pre-compressed expandable nonwoven substrate.
Plug connector having a locking device for locking the plug connector to a mating plug connector which has been inserted as intended, wherein the plug connector has a housing on which the locking device is rotatably mounted, wherein the locking device forms at least one elastically deformable latching hook , wherein the housing has a latching recess for each latching hook , and the locking device can be latched and fixed to the housing by means of deflection of the respective latching hook into the latching recess in a predetermined rotational position relative to the housing as soon as the locking device has been operated into a predetermined plug-connection position, wherein the at least one latching hook is designed to be released from its latching position, in which it is deflected into the respective latching recess , by an unlocking means of the mating plug connector during a process of plug-connecting the plug connector to the mating plug connector by way of the at least one latching hook being pushed at least partially out of the latching recess by the unlocking means , and wherein the locking device with the latching hook released from the latching position can be rotated from the plug-connected position to a locking position when the mating plug connector is plug-connected to the plug connector as intended, the plug connector and the mating plug connector being locked to each other by the locking device in the locking position, characterized in that the plug connector has a plug face and a groove which encircles at least a portion of the plug face and into which a projection of the mating plug connector , which projection corresponds to the groove , can be brought into engagement during the plug-connection process, and the latching recess extends into the groove and the at least one latching book extends into the groove owing to the deflection of the respective latching hook into the latching recess .
A vacuum switch assembly with a medium-voltage disconnector comprising a cabinet in which supports are positioned for each pole, pairs of opposing fixed contacts that can be individually associated with blades , wherein said blades are alternatingly and selectively rotated to be engaged with one or the other of the two fixed contacts connected to at least one user or to the ground, between closed and open positions, said blades being rotated by means of a cam drive which, on one side, causes said fixed contacts and said blades to acquire said closed and open positions and, on another side, movable and fixed contacts of a vacuum switch to be engaged or disengaged, characterized in that said blades are arranged on a plate which is positioned directly on a control shaft through which it is rotated, said plate also carrying said cam drive wherein each pole provides a casing consisting of two half-shells made of insulating material each housing said pairs of fixed contacts and wherein said blades are pairs of blades.
A method for controlling full-beam functions of a motor vehicle, comprising an actuating element for controlling the full-beam functions, a) wherein the actuating element is able to be brought, starting from its neutral position (N), a1) in a first actuating direction (A) into two function positions (F1, F2) arranged one behind the other and returns to its neutral position (N) when it is released, wherein a first actuating force is required to reach the first function position (F1) and a pressure point (D) must be overcome by an actuating force that is higher than the first actuating force to reach the second function position; and a2) in a second actuating direction (B) into a third function position (F3) and returns to its neutral position (N) when it is released; b) wherein the full-beam functions are controlled, in dependence on an actuation of the actuating element , such b1) that a light flasher function is activated in the first function position (F1), b2) that a permanent full-beam function is able to be switched on and off in the second function position (F2), and b3) that a full-beam automatic function is able to be activated and deactivated in the third function position (F3) . a) wherein the actuating element is able to be brought, starting from its neutral position (N), a1) in a first actuating direction (A) into two function positions (F1, F2) arranged one behind the other and returns to its neutral position (N) when it is released, wherein a first actuating force is required to reach the first function position (F1) and a pressure point (D) must be overcome by an actuating force that is higher than the first actuating force to reach the second function position; and a2) in a second actuating direction (B) into a third function position (F3) and returns to its neutral position (N) when it is released; a1) in a first actuating direction (A) into two function positions (F1, F2) arranged one behind the other and returns to its neutral position (N) when it is released, wherein a first actuating force is required to reach the first function position (F1) and a pressure point (D) must be overcome by an actuating force that is higher than the first actuating force to reach the second function position; and a2) in a second actuating direction (B) into a third function position (F3) and returns to its neutral position (N) when it is released; b) wherein the full-beam functions are controlled, in dependence on an actuation of the actuating element , such b1) that a light flasher function is activated in the first function position (F1), b2) that a permanent full-beam function is able to be switched on and off in the second function position (F2), and b3) that a full-beam automatic function is able to be activated and deactivated in the third function position (F3) . b1) that a light flasher function is activated in the first function position (F1), b2) that a permanent full-beam function is able to be switched on and off in the second function position (F2), and b3) that a full-beam automatic function is able to be activated and deactivated in the third function position (F3) .
A method for controlling a microgrid comprising a plurality of assets connected in the microgrid, including loads (L) and Distributed Generators, DG, of which DGs (battery energy storage systems (BESS), synchronous power generators (SG), photovoltaic generators (PV)) at least a plurality are grid forming resources (BESS, SG) capable of being controlled in a grid forming mode for controlling the voltage and frequency in the microgrid, the method comprising: selecting a set of resources of the plurality of grid forming resources based on the respective location within the microgrid of each of the resources in the selected set; and activating a grid forming control mode for the resources in the selected set, not for all of the plurality of grid forming resources, whereby said resources in the selected set are used to control the voltage and frequency of the microgrid; wherein the selecting comprises selecting said set from a plurality of different sets, each of the different sets comprising a different plurality of the grid forming resources. selecting a set of resources of the plurality of grid forming resources based on the respective location within the microgrid of each of the resources in the selected set; and activating a grid forming control mode for the resources in the selected set, not for all of the plurality of grid forming resources, whereby said resources in the selected set are used to control the voltage and frequency of the microgrid; wherein the selecting comprises selecting said set from a plurality of different sets, each of the different sets comprising a different plurality of the grid forming resources.
A stretchable film, comprising a laminated film of a plurality of elastomer layers, wherein the stretchable film comprises an elastomer layer (A1), an elastomer layer (B), and an elastomer layer (A2) in the stated order, wherein the elastomer layer (A1) and the elastomer layer (A2) are arranged as outer layers, wherein each of the elastomer layer (A1) and the elastomer layer (A2) contains a fatty acid amide and a metal soap, and wherein a content of the fatty acid amide in the elastomer layer (A1) and a content of the fatty acid amide in the elastomer layer (A2) are each from 0.75 wt% to 4 wt%. wherein the stretchable film comprises an elastomer layer (A1), an elastomer layer (B), and an elastomer layer (A2) in the stated order, wherein the elastomer layer (A1) and the elastomer layer (A2) are arranged as outer layers, wherein each of the elastomer layer (A1) and the elastomer layer (A2) contains a fatty acid amide and a metal soap, and wherein a content of the fatty acid amide in the elastomer layer (A1) and a content of the fatty acid amide in the elastomer layer (A2) are each from 0.75 wt% to 4 wt%.