mhurhangee/patent-ind-claim-en huggingface dataset:
A non-contact power supply apparatus comprising a plurality of power transmitting coils (P11, P12, P13, P21, P22, P23, P1, P2, Pn), wherein each of the plurality of power transmitting coils (P11, P12, P13, P21, P22, P23, P1, P2, Pn) is configured to receive an output power and transmit the output power to at least one of a plurality of battery cells (BC11, BC12, BC13, BC21, BC22, BC23) which are provided in a single battery apparatus (B) of a single target charging device in a non-contact manner, and the single target charging device further comprises a plurality of respective charging corresponding to the plurality of battery cells in a one-to-one scheme, (321-1, 321-2, 322-1, 322-2) respectively charging the plurality of battery cells (BC11, BC12, BC13, BC21, BC22, BC23), characterised in that the non-contact power supply apparatus further comprises: a power conversion unit configured to convert input power into the plurality of output powers and configured to adjust a level of each of the plurality of output powers in response to power state signals transmitted by the plurality of respective charging units (321-1, 321-2, 322-1, 322-2) until all respective voltage levels of the respective received powers by the plurality of battery cells (BC11, BC12, BC13, BC21, BC22, BC23) are within a reference voltage range, and configured to apply the plurality of output powers to the plurality of power transmitting coils(P11, P12, P13, P21, P22, P23, P1, P2, Pn), respectively.
A monofacial pad for use in a dental hygiene appliance comprising: a pad base comprising a pad base top surface ; and a plurality of mushroom-shaped bristles extending from the top surface , wherein the mushroom-shaped bristles comprise a material with Shore 00 hardness between about 50 and about 100; wherein at least one of the mushroom-shaped bristles comprises a pileus and a stipe , wherein the pileus comprises a brim ; wherein the brim comprises an underbrim surface , and an overbrim surface . a pad base comprising a pad base top surface ; and a plurality of mushroom-shaped bristles extending from the top surface , wherein the mushroom-shaped bristles comprise a material with Shore 00 hardness between about 50 and about 100; wherein at least one of the mushroom-shaped bristles comprises a pileus and a stipe , wherein the pileus comprises a brim ; wherein the brim comprises an underbrim surface , and an overbrim surface .
A method for producing and purifying RNA, comprising the steps of A) providing DNA encoding the RNA; B) in vitro transcription of the DNA to yield a solution comprising transcribed RNA; and C) diafiltration and/or concentration and/or purification of the solution comprising transcribed RNA by one or more steps of tangential flow filtration (TFF), wherein the method comprises in step C) the steps: C1) optionally termination of transcription; C2) diafiltration and/or concentration and/or purification of the solution comprising the transcribed RNA by one or more steps of TFF; C3) purification of the RNA by a further purification method, wherein said further purification method does not comprise a step of phenol/chloroform extraction and/or DNA and/or RNA precipitation, wherein the further purification method is performed by means of reversed phase HPLC; and C4) diafiltration and/or concentration and/or purification of the solution comprising the transcribed RNA obtained after step C3) by one or more steps of TFF, wherein the at least one or more steps of TFF comprises using a TFF membrane cassette. A) providing DNA encoding the RNA; B) in vitro transcription of the DNA to yield a solution comprising transcribed RNA; and C) diafiltration and/or concentration and/or purification of the solution comprising transcribed RNA by one or more steps of tangential flow filtration (TFF), wherein the method comprises in step C) the steps: C1) optionally termination of transcription; C2) diafiltration and/or concentration and/or purification of the solution comprising the transcribed RNA by one or more steps of TFF; C3) purification of the RNA by a further purification method, wherein said further purification method does not comprise a step of phenol/chloroform extraction and/or DNA and/or RNA precipitation, wherein the further purification method is performed by means of reversed phase HPLC; and C4) diafiltration and/or concentration and/or purification of the solution comprising the transcribed RNA obtained after step C3) by one or more steps of TFF, C1) optionally termination of transcription; C2) diafiltration and/or concentration and/or purification of the solution comprising the transcribed RNA by one or more steps of TFF; C3) purification of the RNA by a further purification method, wherein said further purification method does not comprise a step of phenol/chloroform extraction and/or DNA and/or RNA precipitation, wherein the further purification method is performed by means of reversed phase HPLC; and C4) diafiltration and/or concentration and/or purification of the solution comprising the transcribed RNA obtained after step C3) by one or more steps of TFF,
A method comprising: detecting noise in an environment with a microphone to produce a noise signal; receiving a voice signal to be played into the environment through a loudspeaker; determining a frequency analysis region for a multiband voice intelligibility computation based on a relationship between a microphone transfer function of the microphone and a loudspeaker transfer function of the loudspeaker; performing multiband correction of the noise signal based on the microphone transfer function, to produce a corrected noise signal; performing multiband correction of the voice signal based on the loudspeaker transfer function to produce a corrected voice signal; and computing multiband voice intelligibility results over the frequency analysis region based on the corrected noise signal and the corrected voice signal. detecting noise in an environment with a microphone to produce a noise signal; receiving a voice signal to be played into the environment through a loudspeaker; determining a frequency analysis region for a multiband voice intelligibility computation based on a relationship between a microphone transfer function of the microphone and a loudspeaker transfer function of the loudspeaker; performing multiband correction of the noise signal based on the microphone transfer function, to produce a corrected noise signal; performing multiband correction of the voice signal based on the loudspeaker transfer function to produce a corrected voice signal; and computing multiband voice intelligibility results over the frequency analysis region based on the corrected noise signal and the corrected voice signal.
An anti-CD25 antibody or antigen-binding fragment thereof, comprising: a) aCD25-a-672-HCDR3 amino acid sequence (SEQ ID NO: 4) as variable heavy chain complementarity determining region 3 b) aCD25-a-672-HCDR1 amino acid sequence (SEQ ID NO: 2) as variable heavy chain complementarity determining region 1; c) aCD25-a-672-HCDR2 amino acid sequence (SEQ ID NO: 3) as variable heavy chain complementarity determining region 2; d) aCD25-a-672-LCDR1 amino acid sequence (SEQ ID NO: 6) as variable light chain complementarity determining region 1; e) aCD25-a-672-LCDR2 amino acid sequence (SEQ ID NO: 7) as variable light chain complementarity determining region 2; and f) aCD25-a-672-LCDR3 amino acid sequence (SEQ ID NO: 8) as variable light chain complementarity determining region 3. a) aCD25-a-672-HCDR3 amino acid sequence (SEQ ID NO: 4) as variable heavy chain complementarity determining region 3 b) aCD25-a-672-HCDR1 amino acid sequence (SEQ ID NO: 2) as variable heavy chain complementarity determining region 1; c) aCD25-a-672-HCDR2 amino acid sequence (SEQ ID NO: 3) as variable heavy chain complementarity determining region 2; d) aCD25-a-672-LCDR1 amino acid sequence (SEQ ID NO: 6) as variable light chain complementarity determining region 1; e) aCD25-a-672-LCDR2 amino acid sequence (SEQ ID NO: 7) as variable light chain complementarity determining region 2; and f) aCD25-a-672-LCDR3 amino acid sequence (SEQ ID NO: 8) as variable light chain complementarity determining region 3.
A correction data generating apparatus for generating correction data for correcting a drive pulse signal applied to each actuator respectively corresponding to one of a plurality of nozzles of an inkjet head , comprising: a generation section configured to generate a channel number for individually identifying each nozzle; a parameter output section configured to output a parameter required for arithmetic which represents a characteristic of a correction amount with respect to an arrangement direction of the nozzles wherein the correction amount is a correction amount for correcting print density ; an arithmetic section configured to carry out the arithmetic using the parameter output from the parameter output section to calculate the correction amount (X) for each channel number; and a conversion section configured to convert the correction amount (X) calculated for each channel number by the arithmetic section to the correction data; a correction data output section configured to output the correction data obtained for each channel number by the conversion section; characterized in that the conversion section is configured to convert the correction amount (X) for the each channel number to correction time (t[nsec]) for correcting a pulse width of the drive pulse signal for each channel. a generation section configured to generate a channel number for individually identifying each nozzle; a parameter output section configured to output a parameter required for arithmetic which represents a characteristic of a correction amount with respect to an arrangement direction of the nozzles wherein the correction amount is a correction amount for correcting print density ; an arithmetic section configured to carry out the arithmetic using the parameter output from the parameter output section to calculate the correction amount (X) for each channel number; and a conversion section configured to convert the correction amount (X) calculated for each channel number by the arithmetic section to the correction data; a correction data output section configured to output the correction data obtained for each channel number by the conversion section; characterized in that the conversion section is configured to convert the correction amount (X) for the each channel number to correction time (t[nsec]) for correcting a pulse width of the drive pulse signal for each channel.
A polyglycol-based biocompatible hydrogel polymer matrix comprising a hydrogel polymer comprising at least one first monomeric unit bound through at least one amide linkage to at least one second monomeric unit, wherein the polymer forms the matrix that encapsulates: (a) at least one cell; and (b) a culture medium which supports the growth of the at least one cell; wherein the hydrogel polymer is derived from the first monomeric unit of 8ARM PEG Acetate Amine (8ARM-20k-AA) and 8ARM PEG Amine (8ARM-20k-NH2); the second monomeric unit of 4ARM PEG Succinimidyl Glutaramide (4ARM-20k-SGA) ; a phosphate buffer and a viscosity enhancing agent; wherein the fully synthetic, polyglycol-based biocompatible hydrogel polymer matrix provides controlled release of the at least one cell, when implanted at a target site in an animal's body, to the target site of the animal's body. (a) at least one cell; and (b) a culture medium which supports the growth of the at least one cell;
A strap for a battery module , wherein the strap is a single piece having a closed loop structure, and at least a portion of the strap is folded at the closed loop to provide a welding portion at which the folded portions overlap each other when a predetermined compression is applied to the battery module in operation, wherein the strap includes a first strap region , a second strap region , a third strap region and a fourth strap region , wherein the welding portion is formed in the fourth strap region , wherein the fourth strap region further includes a horizontal region extending horizontally with respect to the ground on the basis of the welding portion and an inclined region extending with a slope (θ2) with respect to the ground, and wherein the second strap region is connected to the inclined region while forming an obtuse angle (θ1) with respect to the first strap region . wherein the strap is a single piece having a closed loop structure, and at least a portion of the strap is folded at the closed loop to provide a welding portion at which the folded portions overlap each other when a predetermined compression is applied to the battery module in operation, wherein the strap includes a first strap region , a second strap region , a third strap region and a fourth strap region , wherein the welding portion is formed in the fourth strap region , wherein the fourth strap region further includes a horizontal region extending horizontally with respect to the ground on the basis of the welding portion and an inclined region extending with a slope (θ2) with respect to the ground, and wherein the second strap region is connected to the inclined region while forming an obtuse angle (θ1) with respect to the first strap region .
A harmonic drive having three connection elements , namely an input element , an output element and an adjusting element , and an antitwist mechanism effective between the connection elements , characterised in that the antitwist mechanism comprises an antitwist element , which is concentric to the connection elements and interlockingly cooperates with one of the connection elements and frictionally cooperates with one other connection element .
A computer-implemented method using vehicular high beam data to augment a geographic database, the method comprising: receiving high beam data for a plurality of high beam events on a road segment, wherein the high beam data for each event indicates whether a vehicle's high beams were active at a location on the road segment; receiving one or more roadway conditions for the locations on the road segment; for each of the plurality of high beam events on the road segment, calculating a high beam confidence value based on the high beam data and the roadway condition, wherein the high beam confidence value indicates a level of confidence that the high beam event occurred in response to low levels of roadway illumination; calculating a high beam frequency for the road segment by aggregating a plurality of high beam confidence values for a plurality of high beam events on the road segment; and augmenting the geographic database by including the high beam frequency for the road segment. receiving high beam data for a plurality of high beam events on a road segment, wherein the high beam data for each event indicates whether a vehicle's high beams were active at a location on the road segment; receiving one or more roadway conditions for the locations on the road segment; for each of the plurality of high beam events on the road segment, calculating a high beam confidence value based on the high beam data and the roadway condition, wherein the high beam confidence value indicates a level of confidence that the high beam event occurred in response to low levels of roadway illumination; calculating a high beam frequency for the road segment by aggregating a plurality of high beam confidence values for a plurality of high beam events on the road segment; and augmenting the geographic database by including the high beam frequency for the road segment.
An axle assembly for a working machine , the axle assembly having an axle housing comprising: a central portion housing a gear , wherein the gear is configured to rotate about an axis (A) and is configured to be partially disposed in a lubricant reservoir, and at least one arm portion (12a,b) extending from the central portion, the arm portion housing at least one driveshaft , the axle assembly further comprising a conduit assembly configured to direct lubricant from the central portion to the arm portion, the conduit assembly comprising a lubricant catcher having an inlet disposed in an interior volume of the central portion, characterized in that the conduit assembly defines a flow path (F) extending from the inlet of the lubricant catcher to an exterior of the axle housing in a radial direction with respect to the axis of rotation of the gear, and in that the gear is configured to move lubricant out of said lubricant reservoir, and wherein the inlet of the lubricant catcher is positioned in alignment with a trajectory of movement of said lubricant, such that lubricant can enter the inlet, wherein the inlet is open in a direction opposite a direction of rotation to the gear. a central portion housing a gear , wherein the gear is configured to rotate about an axis (A) and is configured to be partially disposed in a lubricant reservoir, and at least one arm portion (12a,b) extending from the central portion, the arm portion housing at least one driveshaft , the axle assembly further comprising a conduit assembly configured to direct lubricant from the central portion to the arm portion, the conduit assembly comprising a lubricant catcher having an inlet disposed in an interior volume of the central portion, characterized in that the conduit assembly defines a flow path (F) extending from the inlet of the lubricant catcher to an exterior of the axle housing in a radial direction with respect to the axis of rotation of the gear, and in that the gear is configured to move lubricant out of said lubricant reservoir, and wherein the inlet of the lubricant catcher is positioned in alignment with a trajectory of movement of said lubricant, such that lubricant can enter the inlet, wherein the inlet is open in a direction opposite a direction of rotation to the gear.
A composition for producing particle-containing coatings comprising the following components: A) at least one sol-gel precursor compound and B) solid particles P1), which exhibit a Sauter diameter d 32 in the range of 1.0 μm to 2.0 μm, measured by dynamic light scattering, and solid particles P2), which exhibit a Sauter diameter d 32 of less than 1.0 μm, measured in accordance with DIN ISO 13320 by means of dynamic light scattering, wherein the quantitative ratio of the solid particles P1) to the solid particles P2) is in the range of 1.5 : 1 to 1 : 1.5. A) at least one sol-gel precursor compound and B) solid particles P1), which exhibit a Sauter diameter d 32 in the range of 1.0 μm to 2.0 μm, measured by dynamic light scattering, and solid particles P2), which exhibit a Sauter diameter d 32 of less than 1.0 μm, measured in accordance with DIN ISO 13320
A method for determining a level of collaboration between a user and an exoskeleton for at least one of a foot or an ankle of the user, comprising: providing, by a device using an exoskeleton, a level of force to a limb of a user to aid movement of the limb; measuring, by the device, one or more parameters of the exoskeleton during the movement of the limb using the exoskeleton; determining, by the device, one or more biomechanical measurements of the user during the movement of the limb using the exoskeleton; determining, by the device, a metric based on a combination of the one or more biomechanical measurements and the one or more parameters of the device indicative of a collaboration between the user and the exoskeleton during the movement; and modifying, by the device based on the metric based on the combination of the one or more biomechanical measurements and the one or more parameters of the device indicative of the collaboration between the user and the exoskeleton during the movement, a level of a mechanical power provided by the exoskeleton to the limb during a subsequent movement such that the level of the mechanical power is greater than a level of mechanical power prior to the modification, wherein an amount of power used by a battery of the exoskeleton during the subsequent movement is less than an amount of power used by the battery prior to the modification. providing, by a device using an exoskeleton, a level of force to a limb of a user to aid movement of the limb; measuring, by the device, one or more parameters of the exoskeleton during the movement of the limb using the exoskeleton; determining, by the device, one or more biomechanical measurements of the user during the movement of the limb using the exoskeleton; determining, by the device, a metric based on a combination of the one or more biomechanical measurements and the one or more parameters of the device indicative of a collaboration between the user and the exoskeleton during the movement; and modifying, by the device based on the metric based on the combination of the one or more biomechanical measurements and the one or more parameters of the device indicative of the collaboration between the user and the exoskeleton during the movement, a level of a mechanical power provided by the exoskeleton to the limb during a subsequent movement such that the level of the mechanical power is greater than a level of mechanical power prior to the modification, wherein an amount of power used by a battery of the exoskeleton during the subsequent movement is less than an amount of power used by the battery prior to the modification.
A method of preparing zeolite SSZ-98, comprising: (a) preparing a reaction mixture containing: at least one source of silicon oxide; at least one source of aluminum oxide; at least one source of potassium; N,N -dimethylpiperidinium cations (Q); hydroxide ions; and water; and (b) subjecting the reaction mixture to crystallization condition sufficient to form crystals of the zeolite, wherein the at least one source of silicon oxide and aluminum oxide is zeolite Y, and wherein the zeolite is prepared from a reaction mixture comprising, in terms of mole ratios, the following: SiO 2 /Al 2 O 3 10 to 100 K/SiO 2 0.05 to 0.45 Q/SiO 2 0.10 to 0.80 OH/SiO 2 0.20 to 1.00 H 2 O/SiO 2 10 to 50 (a) preparing a reaction mixture containing: at least one source of silicon oxide; at least one source of aluminum oxide; at least one source of potassium; N,N -dimethylpiperidinium cations (Q); hydroxide ions; and water; and at least one source of silicon oxide; at least one source of aluminum oxide; at least one source of potassium; N,N -dimethylpiperidinium cations (Q); hydroxide ions; and water; and (b) subjecting the reaction mixture to crystallization condition sufficient to form crystals of the zeolite, wherein the at least one source of silicon oxide and aluminum oxide is zeolite Y, and wherein the zeolite is prepared from a reaction mixture comprising, in terms of mole ratios, the following: SiO 2 /Al 2 O 3 10 to 100 K/SiO 2 0.05 to 0.45 Q/SiO 2 0.10 to 0.80 OH/SiO 2 0.20 to 1.00 H 2 O/SiO 2 10 to 50