mhurhangee/ep-ind-claims huggingface dataset:
A method for determining a presence or absence of an electronic device in a predefined presence determination area at the electronic device, comprising: estimating a current location based on strength of signals received from a plurality of wireless communication devices; correcting the estimated location by using movement information acquired through a sensor to generate a first corrected location; correcting the first corrected location by using information about a boundary area of the predefined presence determination area to generate a second corrected location; and determining the presence or absence in the presence determination area, based on the second corrected location, wherein information of the predefined presence determination area and the boundary area is obtained from a server automatically when entering a specific region. estimating a current location based on strength of signals received from a plurality of wireless communication devices; correcting the estimated location by using movement information acquired through a sensor to generate a first corrected location; correcting the first corrected location by using information about a boundary area of the predefined presence determination area to generate a second corrected location; and determining the presence or absence in the presence determination area, based on the second corrected location, wherein information of the predefined presence determination area and the boundary area is obtained from a server automatically when entering a specific region.
Use of a dietary supplement comprising: a. cinnamon, or an extract of cinnamon, and b. a creatine derivative, selected from the group consisting of creatine monohydrate and other creatine hydrates, creatine salts such as creatine citrate, creatine esters, phosphorylated creatine, and creatine pyruvate, or a creatine precursor, selected from the group consisting of glycocyamine or guanidinoacetic acid and the amino acids arginine, glycine, and methionine, guanidinopropionic acid, trimethyl glycine, and s-adenosyl methionine, for enhancing the uptake of nutrients into mammalian muscle. a. cinnamon, or an extract of cinnamon, and b. a creatine derivative, selected from the group consisting of creatine monohydrate and other creatine hydrates, creatine salts such as creatine citrate, creatine esters, phosphorylated creatine, and creatine pyruvate, or a creatine precursor, selected from the group consisting of glycocyamine or guanidinoacetic acid and the amino acids arginine, glycine, and methionine, guanidinopropionic acid, trimethyl glycine, and s-adenosyl methionine, for enhancing the uptake of nutrients into mammalian muscle.
A charging current control method, applied to an electronic device, wherein the electronic device comprises a battery, a mainboard, and a charging interface, an input terminal of the mainboard is connected to an output terminal of the charging interface, an input terminal of the charging interface is connected to an output terminal of a power supply device, and an output terminal of the mainboard is connected to an input terminal of the battery, characterized in that the method comprises: in a process of charging the battery, determining a target impedance by the electronic device, wherein a value of the target impedance is calculated by a value of a first impedance and a value of a second impedance, the first impedance is the impedance between the output terminal of the power supply device and the input terminal of the mainboard, the second impedance is the impedance between the output terminal of the mainboard and the input terminal of the battery, and the value of the target impedance is less than a value of total impedance between the output terminal of the power supply device and the input terminal of the battery; transmitting instruction information to the power supply device by the electronic device, wherein the instruction information instructs the power supply device to adjust an output current of the power supply device according to the value of the target impedance. in a process of charging the battery, determining a target impedance by the electronic device, wherein a value of the target impedance is calculated by a value of a first impedance and a value of a second impedance, the first impedance is the impedance between the output terminal of the power supply device and the input terminal of the mainboard, the second impedance is the impedance between the output terminal of the mainboard and the input terminal of the battery, and the value of the target impedance is less than a value of total impedance between the output terminal of the power supply device and the input terminal of the battery; transmitting instruction information to the power supply device by the electronic device, wherein the instruction information instructs the power supply device to adjust an output current of the power supply device according to the value of the target impedance.
A steering switch adapted for being provided on a spoke of a steering wheel of vehicle, the steering switch comprising: an approval switch adapted for inputting an approval of a lane change executed by a drive assistance system of the vehicle; the steering switch characterized by further comprising a main switch adapted for inputting an ON/OFF operation of the drive assistance system; wherein the approval switch is arranged adjacent to an upper side of the main switch. an approval switch adapted for inputting an approval of a lane change executed by a drive assistance system of the vehicle; the steering switch characterized by further comprising a main switch adapted for inputting an ON/OFF operation of the drive assistance system; wherein the approval switch is arranged adjacent to an upper side of the main switch.
A targeting agent antibody conjugate comprising: (a) an antibody or antibody fragment that binds to a CD3 T-cell co-receptor, the antibody or antibody fragment comprising an unnatural amino acid, and (b) a compound of Formula XI that binds to a target cell: wherein the antibody or antibody fragment that binds to the CD3 T-cell co-receptor does not bind to the target cell; wherein the compound of Formula XI is connected to the unnatural amino acid. wherein the antibody or antibody fragment that binds to the CD3 T-cell co-receptor does not bind to the target cell; wherein the compound of Formula XI is connected to the unnatural amino acid.
Turbine blade of a turbine rotor blade ring, which turbine blade has: - a suction side, - a pressure side, and - a cooling air channel through which a cooling medium for cooling the turbine blade can be transported, - wherein the cooling air channel has, in at least one portion, a course such that - its cross-sectional area increases in a flow direction of the cooling medium, in a first, widening sub-portion, up to a maximum, - its cross-sectional area decreases in a second, narrowing sub-portion downstream of the maximum, and - the cooling medium is, in the second, narrowing sub-portion, accelerated with a directional component in the direction of the suction side of the turbine blade, characterized - in that the cooling air channel forms, in the region of the maximum, a bulge in the direction of the pressure side, wherein the cooling medium is diverted in the direction of the pressure side in the first sub-portion and is diverted in the direction of the suction side in the second sub-portion, wherein - the centreline of the cooling air channel has, in the first sub-portion, a directional component in the direction of the pressure side of the turbine blade, and, - for the acceleration of the cooling medium in the second, narrowing sub-portion in the direction of the suction side of the turbine blade, the centreline of the cooling air channel has, in the second, narrowing sub-portion, a directional component in the direction of the suction side. - a suction side, - a pressure side, and - a cooling air channel through which a cooling medium for cooling the turbine blade can be transported, - wherein the cooling air channel has, in at least one portion, a course such that - its cross-sectional area increases in a flow direction of the cooling medium, in a first, widening sub-portion, up to a maximum, - its cross-sectional area decreases in a second, narrowing sub-portion downstream of the maximum, and - the cooling medium is, in the second, narrowing sub-portion, accelerated with a directional component in the direction of the suction side of the turbine blade, characterized - in that the cooling air channel forms, in the region of the maximum, a bulge in the direction of the pressure side, wherein the cooling medium is diverted in the direction of the pressure side in the first sub-portion and is diverted in the direction of the suction side in the second sub-portion, wherein - the centreline of the cooling air channel has, in the first sub-portion, a directional component in the direction of the pressure side of the turbine blade, and, - for the acceleration of the cooling medium in the second, narrowing sub-portion in the direction of the suction side of the turbine blade, the centreline of the cooling air channel has, in the second, narrowing sub-portion, a directional component in the direction of the suction side.
Print head for applying a coating agent to a component, in particular for applying a paint to a motor vehicle body component, having a) a nozzle plate, b) a plurality of nozzles in the nozzle plate for dispensing the coating agent, and c) a plurality of valve elements movable relative to the nozzle plate for controlling the coating agent discharge through the nozzles, the movable valve elements closing the respective nozzles in a closed position, whereas the movable valve elements open the respective nozzles in an open position, and d) a plurality of seals for sealing the respective nozzle relative to the respective movable valve element in the closed position of the respective valve element, characterized in e) that the movable valve elements are each complementarily adapted in their shape to the shape of the respective nozzle and penetrate into the respective nozzle, and f) that the seals are each arranged on the inner flanges of the nozzles. a) a nozzle plate, b) a plurality of nozzles in the nozzle plate for dispensing the coating agent, and c) a plurality of valve elements movable relative to the nozzle plate for controlling the coating agent discharge through the nozzles, the movable valve elements closing the respective nozzles in a closed position, whereas the movable valve elements open the respective nozzles in an open position, and d) a plurality of seals for sealing the respective nozzle relative to the respective movable valve element in the closed position of the respective valve element, e) that the movable valve elements are each complementarily adapted in their shape to the shape of the respective nozzle and penetrate into the respective nozzle, and f) that the seals are each arranged on the inner flanges of the nozzles.
A method, comprising: detecting repetitive connections within a predetermined time period from a source node (110a-110d) to a destination node; (125, 130, 135, 145) determining the source node is idle and the repetitive connections indicate suspect activity, wherein the determining includes: determining the repetitive connections include more than a threshold value X of resource identifiers requested by the source node, wherein the threshold value X is selected to indicate a minimum number of connections sufficient for determining whether the source node is idle; determining the repetitive connections include less than a threshold value Y of unique domain names; and determining the repetitive connections include less than a threshold value Z of unique resource identifiers associated with at least one of the unique domain names, wherein the threshold values X, Y and Z are numerical values selected to be indicative of a pattern consistent with connections not generated by a human user; calculating (515b-560b) a score for the idle source node based on behavior of the repetitive connections during the predetermined time period; and taking a policy action if the score exceeds a threshold value. determining the repetitive connections include more than a threshold value X of resource identifiers requested by the source node, wherein the threshold value X is selected to indicate a minimum number of connections sufficient for determining whether the source node is idle; determining the repetitive connections include less than a threshold value Y of unique domain names; and determining the repetitive connections include less than a threshold value Z of unique resource identifiers associated with at least one of the unique domain names, wherein the threshold values X, Y and Z are numerical values selected to be indicative of a pattern consistent with connections not generated by a human user; calculating (515b-560b) a score for the idle source node based on behavior of the repetitive connections during the predetermined time period; and taking a policy action if the score exceeds a threshold value.
A method of managing flash memory and memory in an electronic barcode scanning device, the electronic barcode scanning device having an image sensor package operative to scan a barcode and a processor die coupled to the image sensor package, the processor die having a processor, a memory and a flash memory, a plurality of barcode scanning algorithms loaded into the flash memory, and an image capture port operatively connected to the image sensor package, the method comprising: determining if a barcode decoding algorithm is loaded in the memory; if a barcode decoding algorithm is loaded in the memory, determining if the loaded barcode decoding algorithm is a correct barcode decoding algorithm or an incorrect barcode decoding algorithm; unloading an incorrect barcode decoding algorithm from the memory if an incorrect barcode decoding algorithm is loaded in the memory; and loading a correct barcode decoding algorithm from flash memory into the memory; whereby the memory on the processor die is minimized. determining if a barcode decoding algorithm is loaded in the memory; if a barcode decoding algorithm is loaded in the memory, determining if the loaded barcode decoding algorithm is a correct barcode decoding algorithm or an incorrect barcode decoding algorithm; unloading an incorrect barcode decoding algorithm from the memory if an incorrect barcode decoding algorithm is loaded in the memory; and loading a correct barcode decoding algorithm from flash memory into the memory; whereby the memory on the processor die is minimized.
A battery unit, comprising: an electrode assembly, comprising a main body portion and a tab extending from an end of the main body portion along a length direction of the electrode assembly; two electrode terminals arranged at the top of the electrode assembly; and two current collecting members respectively electrically connecting the tabs on both sides of the main body portion with the respective electrode terminal on the same side; wherein each current collecting member comprises a guiding plate and a supporting plate, the guiding plate is located on one side of the main body portion along the length direction and extends along a width direction of the electrode assembly, a reinforcement portion is arranged on the guiding plate and is configured to reduce the deformation of the guiding plate towards the main body portion; and the supporting plate is connected to an end of the guiding plate along the width direction, and the tab is bent relative to the length direction and connected to the supporting plate. an electrode assembly, comprising a main body portion and a tab extending from an end of the main body portion along a length direction of the electrode assembly; two electrode terminals arranged at the top of the electrode assembly; and two current collecting members respectively electrically connecting the tabs on both sides of the main body portion with the respective electrode terminal on the same side; wherein each current collecting member comprises a guiding plate and a supporting plate, the guiding plate is located on one side of the main body portion along the length direction and extends along a width direction of the electrode assembly, a reinforcement portion is arranged on the guiding plate and is configured to reduce the deformation of the guiding plate towards the main body portion; and the supporting plate is connected to an end of the guiding plate along the width direction, and the tab is bent relative to the length direction and connected to the supporting plate.
A rear seat assembly for use in a vehicle, the rear seat assembly comprising: a seatback; an armrest hingeably mounted in relation to the seatback and configured to move from a stowed position in which the armrest is at least partially received in the seatback, to a deployed position in which the armrest extends from the seatback; and an apparatus comprising: a flexible sheet for covering a gap between the armrest and the seatback, the flexible sheet having a first end attached to the armrest; tensioning means attached to a second end of the flexible sheet, wherein the tensioning means is arranged to apply tension to the flexible sheet; characterised in that the apparatus further comprises a tension bar positioned between the first end and the tensioning means such that the flexible sheet is maintained in tension by the tensioning means over the tension bar. a seatback; an armrest hingeably mounted in relation to the seatback and configured to move from a stowed position in which the armrest is at least partially received in the seatback, to a deployed position in which the armrest extends from the seatback; and an apparatus comprising: a flexible sheet for covering a gap between the armrest and the seatback, the flexible sheet having a first end attached to the armrest; tensioning means attached to a second end of the flexible sheet, wherein the tensioning means is arranged to apply tension to the flexible sheet; characterised in that the apparatus further comprises a tension bar positioned between the first end and the tensioning means such that the flexible sheet is maintained in tension by the tensioning means over the tension bar. a flexible sheet for covering a gap between the armrest and the seatback, the flexible sheet having a first end attached to the armrest; tensioning means attached to a second end of the flexible sheet, wherein the tensioning means is arranged to apply tension to the flexible sheet; characterised in that the apparatus further comprises a tension bar positioned between the first end and the tensioning means such that the flexible sheet is maintained in tension by the tensioning means over the tension bar.
A method for determining a sufficient removal force (F A), comprising the following steps: - providing an implant securely clamped to a catheter part, wherein the catheter part and implant extend along an axial direction (z), such that a removal force (F A) on the catheter part in the axial direction (z) has to be exceeded in order to move the catheter part relative to the implant in the axial direction (z), - clamping the implant securely clamped on the catheter part between a first and a second holding jaw (10, 20) with a predefined contact pressure (F B) perpendicularly to the axial direction (z), - exerting a predefined, desired removal force (F A) on the catheter part in the axial direction (z), at which the catheter part should not move relative to the implant in the axial direction (z), wherein, if the catheter part moves relative to the implant in the axial direction (z), the removal force (F A) of the implant is considered to be too low, and wherein if the position of the implant relative to the catheter part (F A) is constant, the removal force (F A) of the implant is considered to be sufficient. - providing an implant securely clamped to a catheter part, wherein the catheter part and implant extend along an axial direction (z), such that a removal force (F A) on the catheter part in the axial direction (z) has to be exceeded in order to move the catheter part relative to the implant in the axial direction (z), - clamping the implant securely clamped on the catheter part between a first and a second holding jaw (10, 20) with a predefined contact pressure (F B) perpendicularly to the axial direction (z), - exerting a predefined, desired removal force (F A) on the catheter part in the axial direction (z), at which the catheter part should not move relative to the implant in the axial direction (z), wherein, if the catheter part moves relative to the implant in the axial direction (z), the removal force (F A) of the implant is considered to be too low, and wherein if the position of the implant relative to the catheter part (F A) is constant, the removal force (F A) of the implant is considered to be sufficient.
A core shell microcapsule wherein: - the microcapsule shell is formaldehyde-free and is made of starting materials such that 50%-100% by weight of said materials have a density equal to or less than 1.05 g/cm 3; - the microcapsule core contains a fragrance composition, which composition comprises: a) 20-100% by weight of at least one cyclic fragrance material with a density greater than 0.950 g/cm 3 and a ClogP in the range from 1.00 to 6.00; b) 0-50% by weight of at least one oil soluble organic compound having a density greater than 0.950 g/cm 3; c) 0-80% by weight of at least one material selected from cyclic fragrance ingredients with densities equal to or less than 0.950 g/cm 3 and non-cyclic fragrance ingredients with densities which may be greater or less than 0.950 g/cm 3; where the sum of a), b) and c) equals 100%, wherein the weight ratio of core materials to shell materials is in the range from 50:1 to 1:1; and wherein the said starting materials comprise at least 50% by weight, preferably at least 60% by weight, of (meth)acrylic acid and/or (meth)acrylates. - the microcapsule shell is formaldehyde-free and is made of starting materials such that 50%-100% by weight of said materials have a density equal to or less than 1.05 g/cm 3; - the microcapsule core contains a fragrance composition, which composition comprises: a) 20-100% by weight of at least one cyclic fragrance material with a density greater than 0.950 g/cm 3 and a ClogP in the range from 1.00 to 6.00; b) 0-50% by weight of at least one oil soluble organic compound having a density greater than 0.950 g/cm 3; c) 0-80% by weight of at least one material selected from cyclic fragrance ingredients with densities equal to or less than 0.950 g/cm 3 and non-cyclic fragrance ingredients with densities which may be greater or less than 0.950 g/cm 3; a) 20-100% by weight of at least one cyclic fragrance material with a density greater than 0.950 g/cm 3 and a ClogP in the range from 1.00 to 6.00; b) 0-50% by weight of at least one oil soluble organic compound having a density greater than 0.950 g/cm 3; c) 0-80% by weight of at least one material selected from cyclic fragrance ingredients with densities equal to or less than 0.950 g/cm 3 and non-cyclic fragrance ingredients with densities which may be greater or less than 0.950 g/cm 3;