mhurhangee/ep-ind-claims huggingface dataset:
A manufacturing method of a rack shaft which includes rack teeth formed on an axial portion thereof, wherein a specific stroke is constant at least at a predetermined axial position of the rack teeth, the specific stroke corresponding to a movement amount of the rack shaft per rotation of a pinion shaft including pinion teeth to be meshed with the rack teeth, characterised in that the rack teeth are formed by forging processing, and after heat treatment is performed, a finish processing is performed only on an axial center portion in which the specific stroke is constant in the rack teeth.
A method for measuring skin erythema comprising: a) acquiring a digital image of skin under orthogonal polarization conditions with a white calibration standard included in the field of view of the image; b) identifying median intensity values for a red, a green, and a blue channel for the white standard; c) calculating skin reflectance values given by the red, green, and blue intensity values of each pixel of the image to absorbance values by taking the logarithm of the ratio of the white standard values divided by the skin reflectance values at each of the red green and blue channels separately, where the absorbance equals: log I white red green blue / I skin red green blue for all pixels representing skin; d) subtracting the red channel absorbance values from the green channel absorbance values for all pixels representing skin; characterised in that the method further comprises: e) subtracting the red channel absorbance values from the blue channel absorbance values for all pixels representing skin; f) calculating the ratio of the value calculated at step (d) divided by the value calculated at step (e); and g) building an erythema intensity map of the ratio calculated at step (f). a) acquiring a digital image of skin under orthogonal polarization conditions with a white calibration standard included in the field of view of the image; b) identifying median intensity values for a red, a green, and a blue channel for the white standard; c) calculating skin reflectance values given by the red, green, and blue intensity values of each pixel of the image to absorbance values by taking the logarithm of the ratio of the white standard values divided by the skin reflectance values at each of the red green and blue channels separately, where the absorbance equals: log I white red green blue / I skin red green blue for all pixels representing skin; d) subtracting the red channel absorbance values from the green channel absorbance values for all pixels representing skin; characterised in that the method further comprises: e) subtracting the red channel absorbance values from the blue channel absorbance values for all pixels representing skin; f) calculating the ratio of the value calculated at step (d) divided by the value calculated at step (e); and g) building an erythema intensity map of the ratio calculated at step (f). e) subtracting the red channel absorbance values from the blue channel absorbance values for all pixels representing skin; f) calculating the ratio of the value calculated at step (d) divided by the value calculated at step (e); and g) building an erythema intensity map of the ratio calculated at step (f).
Method for the oxidative dehydrogenation of butene to generate 1,3-butadiene wherein the oxidative dehydrogenation is carried out in the presence of a catalyst, the catalyst comprising a porous aluminum silicate support and a metal oxide having a composition represented by Formula 1 below: [Formula 1] AB 2 O 4 wherein A is one or more selected from the group consisting of divalent cation metals and B is one or more selected from the group consisting of trivalent cation metals, wherein A is one or more selected from the group consisting of Cu, Ra, Ba, Sr, Ca, Be, Zn, Mg, Mn, Co, and Fe, wherein B is one or more selected from the group consisting of Al, Fe, Cr, Ga, In, Ti, La, and Ce, and [wherein the porous aluminum silicate support has a pore distribution of 0.394 to 196.85 pores per cm (1 to 500 ppi (pores per inch)). wherein A is one or more selected from the group consisting of divalent cation metals and B is one or more selected from the group consisting of trivalent cation metals, wherein A is one or more selected from the group consisting of Cu, Ra, Ba, Sr, Ca, Be, Zn, Mg, Mn, Co, and Fe, wherein B is one or more selected from the group consisting of Al, Fe, Cr, Ga, In, Ti, La, and Ce, and [wherein the porous aluminum silicate support has a pore distribution of 0.394 to 196.85 pores per cm (1 to 500 ppi (pores per inch)).
Method for operating a volatile memory (VMEM) of a trip recorder, wherein the volatile memory can be supplied with a supply signal (V_M) and the supply signal (V_M) is arranged either as a first supply signal of a first supply signal source or as a second supply signal of a second supply signal source, wherein in the case of an available first supply signal, the latter is used as supply signal (V_M) and otherwise the second supply signal is used as supply signal (V_M), wherein the supply signal (V_M) can be supplied to the volatile memory (VMEM) in dependence on a switch position of a switching element, wherein an interruption of the first supply signal is detected, characterized in that - during the detected interrupted first supply signal: -- the switch position of the switching element is predetermined for a predetermined period of time in such a manner that the supply signal (V_M) is supplied to the volatile memory (VMEM), -- after expiry of the predetermined period of time, the switch position of the switching element is predetermined in such a manner that the volatile memory (VMEM) is decoupled electrically from the supply signal (V_M), - if the available first supply signal is detected, the expiry of the predetermined period of time is ignored and the switch position of the switching element is predetermined in such a manner that the supply signal (V_M) is supplied to the volatile memory (VMEM) if the available first supply signal is detected during the predetermined period of time. - during the detected interrupted first supply signal: -- the switch position of the switching element is predetermined for a predetermined period of time in such a manner that the supply signal (V_M) is supplied to the volatile memory (VMEM), -- after expiry of the predetermined period of time, the switch position of the switching element is predetermined in such a manner that the volatile memory (VMEM) is decoupled electrically from the supply signal (V_M), -- the switch position of the switching element is predetermined for a predetermined period of time in such a manner that the supply signal (V_M) is supplied to the volatile memory (VMEM), -- after expiry of the predetermined period of time, the switch position of the switching element is predetermined in such a manner that the volatile memory (VMEM) is decoupled electrically from the supply signal (V_M), - if the available first supply signal is detected, the expiry of the predetermined period of time is ignored and the switch position of the switching element is predetermined in such a manner that the supply signal (V_M) is supplied to the volatile memory (VMEM) if the available first supply signal is detected during the predetermined period of time.
A battery pack, suitable for a power consumption device, and comprising: a box; a plurality of battery cells disposed in the box; and a first connector electrically connected to the plurality of battery cells to output electric energy of the battery pack; wherein an outer surface of the box is provided with a groove, and the first connector is disposed in the groove, so that a second connector of the power consumption device is at least partially located in the groove when butted with the first connector; wherein a bottom wall of the groove is provided with a first opening, and the first opening is configured for the first connector to pass through to output electric energy of the plurality of battery cells to an outside of the box through the first connector; wherein the first connector covers the first opening and is hermetically connected to the box to close the first opening; and wherein the first connector comprises a base and a first connecting end, the base covers the first opening from an inner side of the box, a first surface of the base faces the first opening, and the first connecting end is disposed on the first surface and passes out from the first opening; wherein the battery further comprises: a fixing member, the fixing member being configured to pass through a first through hole provided on a bottom wall of the groove to be connected to the first connector, so as to fix the first connector to the box. a box; a plurality of battery cells disposed in the box; and a first connector electrically connected to the plurality of battery cells to output electric energy of the battery pack; wherein an outer surface of the box is provided with a groove, and the first connector is disposed in the groove, so that a second connector of the power consumption device is at least partially located in the groove when butted with the first connector; wherein a bottom wall of the groove is provided with a first opening, and the first opening is configured for the first connector to pass through to output electric energy of the plurality of battery cells to an outside of the box through the first connector; wherein the first connector covers the first opening and is hermetically connected to the box to close the first opening; and wherein the first connector comprises a base and a first connecting end, the base covers the first opening from an inner side of the box, a first surface of the base faces the first opening, and the first connecting end is disposed on the first surface and passes out from the first opening; wherein the battery further comprises: a fixing member, the fixing member being configured to pass through a first through hole provided on a bottom wall of the groove to be connected to the first connector, so as to fix the first connector to the box.
Control mechanism for control of a plurality of timepiece displays, said plurality of displays comprising at least one group comprising at least one first display and one second display which are separate, said mechanism being provided to be driven, according to a reference period, by a wheel of a timepiece movement, said mechanism comprising, for each said group of displays, a train provided to drive, according to a control period, a control wheel, said mechanism comprising, for each said group, a first control element, for control of said first display, and a second control element, for control of said second display, at different moments within the control period, and control means for disengaging said first control element, and said second control element, said control means for disengaging comprising a pivoting control lever, which is provided to pivot with a to-and-fro motion, according to a limited angular course, said control mechanism being characterised in that said control lever supports said first control element and said second control element.
An oil-based pesticidal suspension comprising flonicamid or its salt, an organic silicone type surfactant represented by the formula: wherein R 1 is an organic group represented by the following formula: -R 2 -O-(C 2 H 4 O) x -(C 3 H 6 O) y -R 3 wherein R 2 is a non-substituted or substituted C 2-6 alkylene group, R 3 is a hydrogen, a non-substituted or substituted C 1-6 alkyl group or an acetyl group (-COCH 3), Me is a methyl group, x is an integer of from 0 to 15, and y is an integer of from 0 to 10, m is an integer of from 0 to 10, and n is an integer of from 1 to 10, and at least one oil-based diluting agent selected from the group consisting of a vegetable oil and its alkylated oil. wherein R 1 is an organic group represented by the following formula: -R 2 -O-(C 2 H 4 O) x -(C 3 H 6 O) y -R 3 wherein R 2 is a non-substituted or substituted C 2-6 alkylene group, R 3 is a hydrogen, a non-substituted or substituted C 1-6 alkyl group or an acetyl group (-COCH 3), Me is a methyl group, x is an integer of from 0 to 15, and y is an integer of from 0 to 10, m is an integer of from 0 to 10, and n is an integer of from 1 to 10, and at least one oil-based diluting agent selected from the group consisting of a vegetable oil and its alkylated oil.
Storage and application device for liquid, in particular nail varnish, with a storage container for liquid, having a container interior and a container neck provided with a container opening and having an outer surface provided with an end face and a male thread, and with a closing and application unit having a closing cap with a female thread which can be screwed onto the male thread and an applicator support coupled to the closing cap and having screw-on limiting means for contact with the end face, wherein the applicator support has an applicator for applying the liquid at an end averted from the closing cap, and wherein an elastic element is provided between the closing cap and the applicator support in such a way that the closing cap is, if the screw-on limiting means contact the end face while tensioning the elastic element relative to the applicator support, guided in an axially movable manner by means of guide means between a position of use and a screwed-on closing position, wherein the guide means have a stop formed at the applicator support and a counterstop formed at the closing cap, which together predetermine the position of use and the closing position by mutual contact, wherein the closing cap is designed in several parts with a cap-shaped outer part and a sleeve-shaped inner part fixed coaxially in the outer part, at the inner surface of which inner part the counterstop is formed, wherein the stop has a first and a second stop surface (56a, 56b) and the counterstop has a first and a second counterstop surface (57a, 57b), wherein, for predetermining the position of use, a first stop surface and a first counterstop surface are in contact with each other and, for predetermining the closing position, a second stop surface and a second counterstop surface are in contact with each other, characterised in that the first and second stop surfaces (56a, 56b) face each other and are spaced from each other in the axial direction.
A metal paste comprising: a first metal powder including nickel (Ni); a second metal powder including at least one selected from the group consisting of tin (Sn), zinc (Zn), bismuth (Bi), and indium (In); and a dispersing agent; characterised in that the dispersing agent is sodium stearate; and an average particle size of the first metal powder and the second metal powder is independently 10 μ m or less.
A method implemented by a device to transmit reference signal, RS, in a device-to-device, D2D, communication in a wireless communication system, the method comprising: - selecting an RS pattern among a set of at least two RS patterns, according to at least conditions related to a radio channel of the D2D communication and/or to a communication parameter of the D2D communication; - emitting a radio signal for D2D communication according to the selected RS pattern; wherein the selection of the RS pattern comprises: - obtaining a value corresponding to the conditions related to a radio channel of the D2D communication or to the communication parameter of the D2D communication; - comparing the value with a set of thresholds Th 0,..., Th n, such as Th i ≤Th i+1 and each interval [Th i; Th i+1 [ or]Th i; Th i+1] corresponds to a subset of the set of at least two RS patterns; - selecting a RS pattern among the subset corresponding to the interval in which the value is. - selecting an RS pattern among a set of at least two RS patterns, according to at least conditions related to a radio channel of the D2D communication and/or to a communication parameter of the D2D communication; - emitting a radio signal for D2D communication according to the selected RS pattern; - obtaining a value corresponding to the conditions related to a radio channel of the D2D communication or to the communication parameter of the D2D communication; - comparing the value with a set of thresholds Th 0,..., Th n, such as Th i ≤Th i+1 and each interval [Th i; Th i+1 [ or]Th i; Th i+1] corresponds to a subset of the set of at least two RS patterns; - selecting a RS pattern among the subset corresponding to the interval in which the value is.
A method for processing an audio signal, comprising: inputting from a renderer power-normalized speaker gain coefficients for the audio signal, the audio signal containing an audio object; combining the gain coefficients and computing power of the combined gain coefficients to obtain a power-preserving subwoofer contribution coefficient, wherein computing the power of the combined gain coefficients comprises: squaring each of the individual gain coefficients to obtain squared gain coefficients; summing the squared gain coefficients to obtain a squared sum; and obtaining the subwoofer contribution coefficient for the subwoofer by taking the square root of the squared sum; applying the subwoofer contribution coefficient to a subwoofer audio signal to obtain a gain-modified subwoofer audio signal, wherein the subwoofer audio signal is the signal containing the low-frequency portion of the audio signal; and playing back in an audio environment the gain-modified subwoofer audio signal through a subwoofer to ensure that an amount of bass signal is applied to the subwoofer that avoids bass buildup. inputting from a renderer power-normalized speaker gain coefficients for the audio signal, the audio signal containing an audio object; combining the gain coefficients and computing power of the combined gain coefficients to obtain a power-preserving subwoofer contribution coefficient, wherein computing the power of the combined gain coefficients comprises: squaring each of the individual gain coefficients to obtain squared gain coefficients; summing the squared gain coefficients to obtain a squared sum; and obtaining the subwoofer contribution coefficient for the subwoofer by taking the square root of the squared sum; squaring each of the individual gain coefficients to obtain squared gain coefficients; summing the squared gain coefficients to obtain a squared sum; and obtaining the subwoofer contribution coefficient for the subwoofer by taking the square root of the squared sum; applying the subwoofer contribution coefficient to a subwoofer audio signal to obtain a gain-modified subwoofer audio signal, wherein the subwoofer audio signal is the signal containing the low-frequency portion of the audio signal; and playing back in an audio environment the gain-modified subwoofer audio signal through a subwoofer to ensure that an amount of bass signal is applied to the subwoofer that avoids bass buildup.
A wall-hung toilet, comprising: a top surface; a bowl extending downwardly from the top surface; a shroud extending downwardly from the top surface and surrounding at least a portion of the bowl; a rear mounting wall having a mounting hole and a clearance hole; a pocket extending through a side of the shroud between the bowl and the rear mounting wall; and an accessory hole extending through the top surface into the pocket; wherein the mounting hole extends through the rear mounting wall and into the pocket and the clearance hole extends through the rear mounting wall and into the pocket; characterized in that the accessory hole receives an electrical cord and a supply line for a toilet attachment. a top surface; a bowl extending downwardly from the top surface; a shroud extending downwardly from the top surface and surrounding at least a portion of the bowl; a rear mounting wall having a mounting hole and a clearance hole; a pocket extending through a side of the shroud between the bowl and the rear mounting wall; and an accessory hole extending through the top surface into the pocket; wherein the mounting hole extends through the rear mounting wall and into the pocket and the clearance hole extends through the rear mounting wall and into the pocket; characterized in that the accessory hole receives an electrical cord and a supply line for a toilet attachment.
Method for producing printed products, such as books, brochures or periodicals, made from several printed sheets printed sequentially for processing with a digital printing press, consisting of several printed sheets, which • are delivered sequentially to a first conveying device, • are supplied to a conveyor path of the first conveying device of a stacking device and • are stacked in the stacking device for producing printed products, characterised in that • the printed products are made from several printed sheets printed sequentially and at least one additional sheet (A, B), • the at least one additional sheet (A, B) is conveyed on a second conveying device and supplied to one of the printed sheets printed sequentially on the conveying path of the first conveying device and • the printed sheets printed sequentially as well as the at least one additional sheet (A, B) are stacked in the stacking device as one. • are delivered sequentially to a first conveying device, • are supplied to a conveyor path of the first conveying device of a stacking device and • are stacked in the stacking device for producing printed products, characterised in that • the printed products are made from several printed sheets printed sequentially and at least one additional sheet (A, B), • the at least one additional sheet (A, B) is conveyed on a second conveying device and supplied to one of the printed sheets printed sequentially on the conveying path of the first conveying device and • the printed sheets printed sequentially as well as the at least one additional sheet (A, B) are stacked in the stacking device as one.
A plunger assembly (10, 210) configured for slidable advancement through a reservoir (56, 156, 66) of a vessel (50, 150) containing a material to be administered, the plunger assembly comprising: a plunger rod (12, 212) having a distal end configured to be inserted into the reservoir; and an elastomeric plunger (14, 214) extending from the distal end of the plunger rod (12, 212) and configured to sealingly engage a sidewall of the reservoir (56, 156, 66), characterized in that it comprises: at least one printed circuit board (16, 216) embedded within the elastomeric plunger (14, 214), the at least one printed circuit board (16, 216) including at least one of a via (20, 220) and a recess and at least a portion of the elastomeric plunger (14, 214) being disposed within at least one of the via (20, 220) and the recess; and at least one electronic component (18, 218) electrically connected with the at least one printed circuit board (16, 216). a plunger rod (12, 212) having a distal end configured to be inserted into the reservoir; and an elastomeric plunger (14, 214) extending from the distal end of the plunger rod (12, 212) and configured to sealingly engage a sidewall of the reservoir (56, 156, 66), characterized in that it comprises: at least one printed circuit board (16, 216) embedded within the elastomeric plunger (14, 214), the at least one printed circuit board (16, 216) including at least one of a via (20, 220) and a recess and at least a portion of the elastomeric plunger (14, 214) being disposed within at least one of the via (20, 220) and the recess; and at least one electronic component (18, 218) electrically connected with the at least one printed circuit board (16, 216). at least one printed circuit board (16, 216) embedded within the elastomeric plunger (14, 214), the at least one printed circuit board (16, 216) including at least one of a via (20, 220) and a recess and at least a portion of the elastomeric plunger (14, 214) being disposed within at least one of the via (20, 220) and the recess; and at least one electronic component (18, 218) electrically connected with the at least one printed circuit board (16, 216).