mhurhangee/ep-ind-claims huggingface dataset:
A method of achieving improved hair styling hold comprising: a. applying an aerosol composition to the hair with an apparatus at a spray rate from 0.4 g/sec to 0.8 g/sec, wherein said aerosol composition comprises: i. from 5% to 12% particulate tapioca starch; ii. from 30% to 50% alcohol; iii. from 0.5% to 1% redispersing agent; iv. from 40% to 60% propellant; and v. less than 1% nonvolatile oil; wherein the redispersing agent comprises silica; and b. depositing from 0.15 g to 0.35 g of nonvolatile material from said aerosol composition to the hair when said apparatus is sprayed for 5 sec from a 15 cm distance. a. applying an aerosol composition to the hair with an apparatus at a spray rate from 0.4 g/sec to 0.8 g/sec, wherein said aerosol composition comprises: i. from 5% to 12% particulate tapioca starch; ii. from 30% to 50% alcohol; iii. from 0.5% to 1% redispersing agent; iv. from 40% to 60% propellant; and v. less than 1% nonvolatile oil; wherein the redispersing agent comprises silica; and i. from 5% to 12% particulate tapioca starch; ii. from 30% to 50% alcohol; iii. from 0.5% to 1% redispersing agent; iv. from 40% to 60% propellant; and v. less than 1% nonvolatile oil; b. depositing from 0.15 g to 0.35 g of nonvolatile material from said aerosol composition to the hair when said apparatus is sprayed for 5 sec from a 15 cm distance.
Method for soil compaction with a construction machine, wherein - a support cable is guided along a mast, - the support cable is wound and unwound by means of a rotatably mounted winch drum of a cable winch, - the winch drum is rotatably driven by means of a winch drive, and - a compacting element is arranged on the support cable and is moved vertically by the support cable, wherein the support cable is unwound from the winch drum of the cable winch and the compacting element is lowered on the support cable from a position above a ground surface up to the ground surface, wherein the compacting element strikes the ground surface and compacting the soil in this process, characterised in that - after the compacting element strikes the ground, the support cable is first tensioned in the region of the cable winch and then, before the compacting element is lifted up from the ground again, the support cable is automatically unwound by the control unit from the winch drum by a certain amount, which can preferably be set by the machine driver. - a support cable is guided along a mast, - the support cable is wound and unwound by means of a rotatably mounted winch drum of a cable winch, - the winch drum is rotatably driven by means of a winch drive, and - a compacting element is arranged on the support cable and is moved vertically by the support cable, wherein the support cable is unwound from the winch drum of the cable winch and the compacting element is lowered on the support cable from a position above a ground surface up to the ground surface, wherein the compacting element strikes the ground surface and compacting the soil in this process, characterised in that - after the compacting element strikes the ground, the support cable is first tensioned in the region of the cable winch and then, before the compacting element is lifted up from the ground again, the support cable is automatically unwound by the control unit from the winch drum by a certain amount, which can preferably be set by the machine driver.
A method of wireless communication by a base station, the method comprising: determining a UE has connected to the BS; and configuring the UE to use one of a first transmit-power control mode or a second transmit-power control mode for determining a transmit-power used for transmitting wireless data over a sidelink, wherein configuring the UE to use a first transmit-power control mode is based on the BS being positioned indoors; and wherein configuring the UE to use a second transmit-power control mode is based on the BS being positioned outdoors. configuring the UE to use one of a first transmit-power control mode or a second transmit-power control mode for determining a transmit-power used for transmitting wireless data over a sidelink, wherein configuring the UE to use a first transmit-power control mode is based on the BS being positioned indoors; and wherein configuring the UE to use a second transmit-power control mode is based on the BS being positioned outdoors.
A selector lever for actuating features of an aircraft, comprising: a housing; a pivot disposed in the housing; a shaft having a proximal end rotatably attached to the pivot and a distal end extending from the housing; a slide arranged to be movable along the shaft; a first detent pin operatively connected to the slide; a second detent pin operatively connected to the slide; a first detent plate disposed in the housing and having a first plurality of slots for receiving the first detent pin, each of the first plurality of slots having a first radial depth, at least one of the first plurality of slots comprising a first failure detection slot, the first failure detection slot defined by an extended radial depth that is greater than the first radial depth; a second detent plate disposed in the housing and having a second plurality of slots for receiving the second detent pin, each of the second plurality of slots having a second radial depth; and a failure indicator configured to provide a visual indication when the first detent pin is placed in the first failure detection slot. a housing; a pivot disposed in the housing; a shaft having a proximal end rotatably attached to the pivot and a distal end extending from the housing; a slide arranged to be movable along the shaft; a first detent pin operatively connected to the slide; a second detent pin operatively connected to the slide; a first detent plate disposed in the housing and having a first plurality of slots for receiving the first detent pin, each of the first plurality of slots having a first radial depth, at least one of the first plurality of slots comprising a first failure detection slot, the first failure detection slot defined by an extended radial depth that is greater than the first radial depth; a second detent plate disposed in the housing and having a second plurality of slots for receiving the second detent pin, each of the second plurality of slots having a second radial depth; and a failure indicator configured to provide a visual indication when the first detent pin is placed in the first failure detection slot. a pivot disposed in the housing; a shaft having a proximal end rotatably attached to the pivot and a distal end extending from the housing; a slide arranged to be movable along the shaft; a first detent pin operatively connected to the slide; a second detent pin operatively connected to the slide; a first detent plate disposed in the housing and having a first plurality of slots for receiving the first detent pin, each of the first plurality of slots having a first radial depth, at least one of the first plurality of slots comprising a first failure detection slot, the first failure detection slot defined by an extended radial depth that is greater than the first radial depth; a second detent plate disposed in the housing and having a second plurality of slots for receiving the second detent pin, each of the second plurality of slots having a second radial depth; and a failure indicator configured to provide a visual indication when the first detent pin is placed in the first failure detection slot.
A person support surface comprising at least one inflatable bladder, a cover including a portion above the at least one inflatable bladder, and a control system including a plurality of sensors that generate data signals indicative of a characteristic of the at least one inflatable bladder and a person's tissue contacting the cover, a processor operatively coupled to the plurality of sensors, the processor being configured to execute operating logic to determine a surface performance index as a function of the data signals, and a fluid supply coupled to the at least one inflatable bladder, the processor controlling the operation of the fluid supply as a function of the surface performance index, wherein the surface performance index is a function of interface pressure, shear, and temperature, characterized in that the control system receives information regarding ambient conditions proximate the person support surface and the control system modifies the contributions of interface pressure, shear, and temperature to the surface performance index as a function of the information regarding the ambient conditions.
A polypeptide comprising an O-linked glycosylation sequence, wherein the O-linked glycosylation sequence comprises a sequence selected from SEQ ID NOs: 2-14, and wherein the O-linked glycosylation sequence is covalently bound to an O-glycan.
A process for producing an inorganic oxide that contains micro- and mesopores, comprising: heating a mixture comprising water, an inorganic oxide precursor and at least one compound that binds to the inorganic oxide by hydrogen bonding and a templating agent for producing micropores, the templating agent being an organic compound that contains an element of Group VA of the periodic table of elements and at least one alkylene, alkyl or aryl group having from 1 to 8 carbon atoms, said heating being to a temperature and for a time to produce an inorganic oxide that contains both micropores and mesopores, wherein the inorganic oxide is an amorphous silicate, and wherein said compound is a glycol, having a boiling point of at least 150°C, and which is selected from the group consisting of glycerol, diethylene glycol, triethylene glycol and tetraethylene glycol, and wherein the mixture additionally contains a source of ions selected from the group of IVB, VB, VIB, VIIB, VIIIB, IB, IIB and IIIA elements, and wherein the heating includes maintaining the mixture at the boiling point of water to evaporate water and volatile organics from the inorganic oxide precursor therefrom, followed by calcining at a temperature of above 300°C. heating a mixture comprising water, an inorganic oxide precursor and at least one compound that binds to the inorganic oxide by hydrogen bonding and a templating agent for producing micropores, the templating agent being an organic compound that contains an element of Group VA of the periodic table of elements and at least one alkylene, alkyl or aryl group having from 1 to 8 carbon atoms, said heating being to a temperature and for a time to produce an inorganic oxide that contains both micropores and mesopores, wherein the inorganic oxide is an amorphous silicate, and wherein said compound is a glycol, having a boiling point of at least 150°C, and which is selected from the group consisting of glycerol, diethylene glycol, triethylene glycol and tetraethylene glycol, and wherein the mixture additionally contains a source of ions selected from the group of IVB, VB, VIB, VIIB, VIIIB, IB, IIB and IIIA elements, and wherein the heating includes maintaining the mixture at the boiling point of water to evaporate water and volatile organics from the inorganic oxide precursor therefrom, followed by calcining at a temperature of above 300°C.
A method for transmitting a frame by a station, STA, operating in a wireless local area network, WLAN, system, the method comprising: receiving, from an access point, AP, a first frame comprising an allocation type part and a trigger frame body part, wherein the trigger frame body part comprises information on resource allocation for transmitting a second frame; and transmitting, to the AP, the second frame based on the information on the resource allocation, wherein in case that the allocation type part indicates a null data packet, NDP, frame type: the second frame is configured as a NDP frame, and a resource allocation size part is not included in the trigger frame body part when the frequency resource allocation size for the second frame configured as the NDP frame is fixed, and wherein in case that the allocation type part indicates a frame type including a data region: the second frame is configured as a frame comprising a data region, and the resource allocation size part is included in the trigger frame body part. receiving, from an access point, AP, a first frame comprising an allocation type part and a trigger frame body part, wherein the trigger frame body part comprises information on resource allocation for transmitting a second frame; and transmitting, to the AP, the second frame based on the information on the resource allocation, wherein in case that the allocation type part indicates a null data packet, NDP, frame type: the second frame is configured as a NDP frame, and a resource allocation size part is not included in the trigger frame body part when the frequency resource allocation size for the second frame configured as the NDP frame is fixed, and the second frame is configured as a NDP frame, and a resource allocation size part is not included in the trigger frame body part when the frequency resource allocation size for the second frame configured as the NDP frame is fixed, and wherein in case that the allocation type part indicates a frame type including a data region: the second frame is configured as a frame comprising a data region, and the resource allocation size part is included in the trigger frame body part. the second frame is configured as a frame comprising a data region, and the resource allocation size part is included in the trigger frame body part.
A mobile device comprising: a feature determination logic for determining a plurality of representative feature values on the basis of sensing data indicative of the context of the mobile device and/or user thereof, and a context recognition logic including an adaptive linear classifier, configured to map, during a classification action, the plurality of feature values to a context class, wherein the classifier is further configured to adapt the classification logic thereof on the basis of the feature values and feedback information by the user of the mobile device, characterized by in the case of positive or negative feedback regarding the performed classification, the classifier being configured to adapt the classification logic thereof such that a prototype feature value vector of the recognized class is brought closer to or farther away from the feature vector determined by the plurality of feature values, respectively. a feature determination logic for determining a plurality of representative feature values on the basis of sensing data indicative of the context of the mobile device and/or user thereof, and a context recognition logic including an adaptive linear classifier, configured to map, during a classification action, the plurality of feature values to a context class, wherein the classifier is further configured to adapt the classification logic thereof on the basis of the feature values and feedback information by the user of the mobile device, characterized by in the case of positive or negative feedback regarding the performed classification, the classifier being configured to adapt the classification logic thereof such that a prototype feature value vector of the recognized class is brought closer to or farther away from the feature vector determined by the plurality of feature values, respectively.
Surface treating device, comprising an open lofty non-woven layer and a woven layer, said non-woven layer and woven layer having facing sides (5, 6) which are adhered to each other, characterized a plurality of abrasive segments adhered to the woven layer on the side of said woven layer which faces away from the non-woven layer.
A multi-layer piezoelectric element, comprising: a stacked body in which piezoelectric layers and internal electrode layers are alternately laminated, an end face of each of the internal electrode layers being partly exposed at a side face of the stacked body; and a pair of external electrodes bonded to the partly exposed end face of each of the internal electrode layers, characterized in that a multiplicity of voids existing in each of the internal electrode layers ranges in size from 0.1 μm to 5 μm in diameter, and is scattered overall at a porosity in a range of 5% to 40%, wherein the porosity is a proportion in area of the voids in a cross section of the internal electrode layer in a direction perpendicular to a stacked direction of the stacked body, and the partly exposed end face of each of the internal electrode layers is substantially free from the voids. a stacked body in which piezoelectric layers and internal electrode layers are alternately laminated, an end face of each of the internal electrode layers being partly exposed at a side face of the stacked body; and a pair of external electrodes bonded to the partly exposed end face of each of the internal electrode layers, characterized in that a multiplicity of voids existing in each of the internal electrode layers ranges in size from 0.1 μm to 5 μm in diameter, and is scattered overall at a porosity in a range of 5% to 40%, wherein the porosity is a proportion in area of the voids in a cross section of the internal electrode layer in a direction perpendicular to a stacked direction of the stacked body, and the partly exposed end face of each of the internal electrode layers is substantially free from the voids.
A method of manufacturing an ultra-high strength steel product, which is suitable for production of products having a complicated shape or a high processing depth, comprising: a) preparing (S-21) a steel sheet by blanking the steel sheet having hardenability to form a rough shape of a final product; b) cold-pressing (S-22) the steel sheet to form a 50∼80% shape of a final product; characterized in that the method further comprises: c) trimming (S-23) the cold-formed steel sheet along a contour line corresponding to an outer contour of the final product; d) hot-pressing (S-24) the trimmed product to form a remaining 20∼50% shape of the final product and quenching (S-24) simultaneous with hot-pressing, after heating the trimmed product to an austenite region of 700°C or more; and e) product-finishing by carrying out final trimming and punching of the hot-formed product using a laser beam or water-jet; wherein the step of trimming (S-23) comprises trimming the cold-formed steel sheet along the contour line of the cold-formed steel sheet into a shape as close to a shape of the final product as possible through trial and error, while locally providing a margin to a contour portion of the cold-formed steel sheet, for which shape prediction is difficult. a) preparing (S-21) a steel sheet by blanking the steel sheet having hardenability to form a rough shape of a final product; b) cold-pressing (S-22) the steel sheet to form a 50∼80% shape of a final product; c) trimming (S-23) the cold-formed steel sheet along a contour line corresponding to an outer contour of the final product; d) hot-pressing (S-24) the trimmed product to form a remaining 20∼50% shape of the final product and quenching (S-24) simultaneous with hot-pressing, after heating the trimmed product to an austenite region of 700°C or more; and e) product-finishing by carrying out final trimming and punching of the hot-formed product using a laser beam or water-jet;
Hydraulic valve (12 or 44 or 54) for a pivoting motor adjuster of a camshaft, which hydraulic valve has a piston (19 or 119 or 219) inserted in longitudinally displaceable fashion into a bore (85 or 185 or 285) and which serves for the distribution to two working ports (A, B), wherein - a first port part of the first working port for conducting hydraulic fluid into a first pressure chamber of the pivoting motor adjuster, - a second port part (A*) for conducting hydraulic fluid out of said first pressure chamber to a supply duct (32 or 132 or 232) arranged within the piston (19 or 119 or 219), - a first port part of the second working port for conducting hydraulic fluid into a second pressure chamber, which acts oppositely to the first pressure chamber, of the pivoting motor adjuster, and - a second port part (B*) for conducting hydraulic fluid out of the second pressure chamber to the supply duct (32 or 132 or 232) extend, axially spaced apart from one another, from said bore (85 or 185 or 285), wherein, in the flow from the pressure chambers (9, 10) to the two port parts (A*, B*), there is arranged in each case one check valve (35, 36) which blocks the pressure in the direction from the supply duct (32 or 132 or 232) to the pressure chambers (9, 10), characterized in that the piston (19 or 119 or 219), - in one position for the feed of hydraulic fluid from the supply duct (32 or 132 or 232) to one pressure chamber (9 or 10), blocks the second port part (A* or B*) assigned to said one pressure chamber (9 or 10), and - in the other position for the feed of hydraulic fluid from the supply duct (32 or 132 or 232) to the other pressure chamber (10 or 9), blocks the second port part (B* or A*) assigned to the other pressure chamber (10 or 9). - a first port part of the first working port for conducting hydraulic fluid into a first pressure chamber of the pivoting motor adjuster, - a second port part (A*) for conducting hydraulic fluid out of said first pressure chamber to a supply duct (32 or 132 or 232) arranged within the piston (19 or 119 or 219), - a first port part of the second working port for conducting hydraulic fluid into a second pressure chamber, which acts oppositely to the first pressure chamber, of the pivoting motor adjuster, and - a second port part (B*) for conducting hydraulic fluid out of the second pressure chamber to the supply duct (32 or 132 or 232) - in one position for the feed of hydraulic fluid from the supply duct (32 or 132 or 232) to one pressure chamber (9 or 10), blocks the second port part (A* or B*) assigned to said one pressure chamber (9 or 10), and - in the other position for the feed of hydraulic fluid from the supply duct (32 or 132 or 232) to the other pressure chamber (10 or 9), blocks the second port part (B* or A*) assigned to the other pressure chamber (10 or 9).
An electromagnetic-wave absorber comprising an electromagnetic-wave absorbing layer in which a plurality of magnetic layers (1a to 1e) are stacked, each magnetic layer (1a to 1e) containing magnetic iron oxide (1a 1, 1b 1) that magnetically resonates at a high frequency in a band equal to or higher than a millimeter-wave band, wherein in each of the magnetic layers (1a to 1e), the magnetic iron oxide (1a 1, 1b 1) in a particulate form is dispersed in a resin binder (1a 2, 1b 2), a value of an anisotropic magnetic field, HA, of the magnetic iron oxide (1a 1, 1b 1) contained in at least one of the magnetic layers (1a to 1e) is different from that of the magnetic iron oxide (1a 1, 1b 1) contained in another of the magnetic layers (1a to 1e), and the input impedance of the magnetic layers (1a to 1e) gradually increases from the electromagnetic-wave incident side along a traveling direction of electromagnetic waves. in each of the magnetic layers (1a to 1e), the magnetic iron oxide (1a 1, 1b 1) in a particulate form is dispersed in a resin binder (1a 2, 1b 2), a value of an anisotropic magnetic field, HA, of the magnetic iron oxide (1a 1, 1b 1) contained in at least one of the magnetic layers (1a to 1e) is different from that of the magnetic iron oxide (1a 1, 1b 1) contained in another of the magnetic layers (1a to 1e), and the input impedance of the magnetic layers (1a to 1e) gradually increases from the electromagnetic-wave incident side along a traveling direction of electromagnetic waves.
A multivalent antibody comprising multiple heavy chain variable regions of antibody (hereinafter, referred to as VH) linked to each other via a linker, wherein the linker consists of: (i) a CH1 domain; or (ii) a CH1 domain fragment comprising the amino acid sequence at positions 1 to 14 of a CH1 domain with cysteine (Cys) at position 14, wherein the CH1 domain or CH1 domain fragment is from the IgG4 subclass. (i) a CH1 domain; or (ii) a CH1 domain fragment comprising the amino acid sequence at positions 1 to 14 of a CH1 domain with cysteine (Cys) at position 14,