mhurhangee/ep-ind-claims huggingface dataset:
A developing cartridge comprising: a developing roller rotatable about a developing roller-axis extending in a first direction; a casing configured to accommodate developing agent therein, the casing having an outer surface positioned at one end portion in the first direction of the casing; a first shaft positioned at the outer surface of the casing and rotatable about a rotational axis extending in the first direction, the first shaft having an outer periphery; a first arm extending radially outward from the outer periphery of the first shaft, the first arm being pivotally movable about the rotational axis along with rotation of the first shaft; and a cam extending radially outward from the outer periphery of the first shaft in a direction different from a direction in which the first arm extends, the cam being pivotally movable about the rotational axis along with the rotation of the first shaft, the cam having: one end connected to the first shaft; another end positioned farther from the rotational axis than the one end is farther from the rotational axis; and a pressure contact surface inclined so as to approach the outer surface of the casing as extending from the one end toward the another end, wherein, when a pressing force is applied to the pressure contact surface, the first arm pivotally moves from a first position to a second position along with pivotal movement of the cam and along with the rotation of the first shaft. a developing roller rotatable about a developing roller-axis extending in a first direction; a casing configured to accommodate developing agent therein, the casing having an outer surface positioned at one end portion in the first direction of the casing; a first shaft positioned at the outer surface of the casing and rotatable about a rotational axis extending in the first direction, the first shaft having an outer periphery; a first arm extending radially outward from the outer periphery of the first shaft, the first arm being pivotally movable about the rotational axis along with rotation of the first shaft; and a cam extending radially outward from the outer periphery of the first shaft in a direction different from a direction in which the first arm extends, the cam being pivotally movable about the rotational axis along with the rotation of the first shaft, the cam having: one end connected to the first shaft; another end positioned farther from the rotational axis than the one end is farther from the rotational axis; and a pressure contact surface inclined so as to approach the outer surface of the casing as extending from the one end toward the another end, one end connected to the first shaft; another end positioned farther from the rotational axis than the one end is farther from the rotational axis; and a pressure contact surface inclined so as to approach the outer surface of the casing as extending from the one end toward the another end, wherein, when a pressing force is applied to the pressure contact surface, the first arm pivotally moves from a first position to a second position along with pivotal movement of the cam and along with the rotation of the first shaft.
A method for producing a second audio signal to be distributed on a second set of channels based on a first audio signal present on a first set of channels, comprising: - receiving the first audio signal; - decomposing the first audio signal into audio components according to a set of spectral bands; - receiving a set of mapping coefficients for mapping the spectral band audio components of the first audio signal in the first set of channels onto corresponding spectral bands of the second set of channels; - producing the second audio signal by mapping, by using the set of mapping coefficients, the audio components of the first audio signal in the spectral bands of the first set of channels onto the corresponding spectral bands of the second set of channels; wherein the set of mapping coefficients are provided for each temporal period indicating a transform window and transform windows are overlapped at particular time (t), and the set of mapping coefficients are time varying coefficients that are defined in an encoding process. - receiving the first audio signal; - decomposing the first audio signal into audio components according to a set of spectral bands; - receiving a set of mapping coefficients for mapping the spectral band audio components of the first audio signal in the first set of channels onto corresponding spectral bands of the second set of channels; - producing the second audio signal by mapping, by using the set of mapping coefficients, the audio components of the first audio signal in the spectral bands of the first set of channels onto the corresponding spectral bands of the second set of channels; wherein the set of mapping coefficients are provided for each temporal period indicating a transform window and transform windows are overlapped at particular time (t), and the set of mapping coefficients are time varying coefficients that are defined in an encoding process.
Method for the depth-resolved optical detection of a sample, in which a sample or a part thereof is scanned by means of linear illumination, - the illumination of the sample is periodically structured in focus in at least one spatial direction, - light coming from the sample is detected and images of the sample are generated, - and at least one optical section image and/or an image of increased resolution is calculated from the images, - characterized in that, during a scanning process, a discrete linewise deflection of the detection light is carried out in a detection beam path upstream of the detector in the direction of the scanning of the sample by a line of the linear illumination, such that a line pattern with interspaces arises on the detector even though the sample is scanned sequentially, line-by-line, without interspaces. - the illumination of the sample is periodically structured in focus in at least one spatial direction, - light coming from the sample is detected and images of the sample are generated, - and at least one optical section image and/or an image of increased resolution is calculated from the images, - characterized in that, during a scanning process, a discrete linewise deflection of the detection light is carried out in a detection beam path upstream of the detector in the direction of the scanning of the sample by a line of the linear illumination, such that a line pattern with interspaces arises on the detector even though the sample is scanned sequentially, line-by-line, without interspaces.
A method, comprising: powering a mobile device via a battery disposed in a battery receiving chamber, the battery receiving chamber having a suspension mechanism holding the battery; determining if a mobile device is shut down, wherein shutdown includes shutting down all running applications; after determining that the mobile device is shut down, generating a signal, via a processor, to the suspension mechanism to release the battery; and releasing the battery from the suspension mechanism based on receiving the signal after determining that the mobile device is shut down. powering a mobile device via a battery disposed in a battery receiving chamber, the battery receiving chamber having a suspension mechanism holding the battery; determining if a mobile device is shut down, wherein shutdown includes shutting down all running applications; after determining that the mobile device is shut down, generating a signal, via a processor, to the suspension mechanism to release the battery; and releasing the battery from the suspension mechanism based on receiving the signal after determining that the mobile device is shut down.
A charging apparatus connected to a vehicle and provided with a charger for charging a battery contained in said vehicle, wherein the charging apparatus is characterized in comprising: charging time setting means for setting a charging time for charging said battery; and usage latency calculating means for calculating the latency of usage of said charger, the usage latency being the time between the end of charging of a first vehicle connected to said charger and the start of charging of a second vehicle connected to said charger and charged after said first vehicle; said charging time setting means setting said charging time in accordance with said usage latency. charging time setting means for setting a charging time for charging said battery; and usage latency calculating means for calculating the latency of usage of said charger, the usage latency being the time between the end of charging of a first vehicle connected to said charger and the start of charging of a second vehicle connected to said charger and charged after said first vehicle; said charging time setting means setting said charging time in accordance with said usage latency.
A method of producing a polyhydroxyalkanoic acid copolymer, wherein in the presence of a carbon source and a precursor of -3-hydroxy-4-methyl valeric acid selected from 4-methyl valeric acid, 4-methyl pentene acid and a mixture thereof, a transformant in which the gene of polyhydroxyalkanoic acid-polymerizing enzyme has been introduced in a microorganism selected from Escherichia coli, Ralstonia sp., and Pseudomonas sp. is cultured, and from the culture obtained a polyhydroxyalkanoic acid copolymer comprising at least -3-hydroxy-4-methyl valeric acid units is collected.
A process to produce composite particles; the process comprises a loading step, during which silver-based nanoparticles are obtained bound to outer surfaces of microparticles of TiO 2 so as to obtain said composite particles; said loading step comprising, in turn, a mixing sub-step, a drying sub-step and a heating sub-step, which is at least partially subsequent to the drying sub-step; during the mixing sub-step, a solution containing silver ions and the microparticles of TiO 2 is kept under stirring so as to obtain an intermediate mixture; during the drying sub-step, the water content of the intermediate mixture is reduced (in particular, the intermediate mixture is dried) by supplying heat to the intermediate mixture itself; during the heating sub-step, said intermediate mixture is kept at a temperature higher than 300°C for at least 30 minutes; the silver-based nanoparticles being selected from the group consisting of: silver nanoparticles, silver oxide nanoparticles and a combination thereof; the silver-based nanoparticles comprise silver oxide; the microparticles of TiO 2 having a mean diameter from 0.1 μm to 1 pm; at least 98% by weight of the microparticles of TiO 2 with respect to the overall weight of the microparticles of TiO 2 being of anatase.
Insulator for an end of a cable and adapted for joining with an end of another cable, the insulator having a longitudinal body in which there is provided a central channel, the insulator comprising a connector system arranged in the central channel, said system comprising a connecting pin intended for housing a strand of the end of the cable, characterised in that said pin is shaped so as to have a notched inner surface and the system comprises two jaws surrounding the pin to clamp it therebetween, the insulator comprising a clamping shell made of metallic material which comes to cover at least the pin.
A battery module comprising: a plurality of prismatic battery cells being connected electrically and arranged together in a first direction; and a heat exchanging member (100, 300) supporting bottom surfaces of the battery cells, the heat exchanging member (100, 300) including a lower member (120a, 320a), an upper member (120b, 320b) made of a heat conductive material and facing the bottom surfaces and, for each of the battery cells a corresponding flattened tube (110, 210, 310) interposed between the lower and upper member (120a, 320a; 120b, 320b) and having a upper surface facing the bottom surface of the respective battery cell, wherein an area of the upper surface equals the area of the bottom surface of the respective battery cell the bottom surface of the respective battery cell superposing the area of the upper surface. a plurality of prismatic battery cells being connected electrically and arranged together in a first direction; and a heat exchanging member (100, 300) supporting bottom surfaces of the battery cells, the heat exchanging member (100, 300) including a lower member (120a, 320a), an upper member (120b, 320b) made of a heat conductive material and facing the bottom surfaces and, for each of the battery cells a corresponding flattened tube (110, 210, 310) interposed between the lower and upper member (120a, 320a; 120b, 320b) and having a upper surface facing the bottom surface of the respective battery cell, wherein an area of the upper surface equals the area of the bottom surface of the respective battery cell the bottom surface of the respective battery cell superposing the area of the upper surface.
A method of performing a keyed cryptographic operation by a white-box implementation mapping an externally encoded input message to an output message, wherein all the intermediate values are encoded, the method comprising: - receiving an encoding selection parameter p that specifies one of a plurality of different external input encodings (E 1,E 2); - receiving the encoded input message, wherein the encoding on the input message corresponds to the encoding selection parameter p; - decoding the encoded input message using an inverse (E 0 -1) of a default external input encoding (Eo); - computing a first portion (S ∘ ⊕ k) of the keyed cryptographic operation on the decoded input message to produce a first portion output; and - compensating the first portion output based upon the encoding selection parameter p, - the first portion output being encoded by a function based on a randomly chosen bijective linear function A p and wherein compensating the first portion output includes applying the inverse of the function based on A p, and - wherein E p is the encoding on the input message, wherein E 0 is the encoding corresponding to the default decoding, wherein the functions A 1 and A p are randomly chosen bijective linear functions, wherein S is a substitution box, wherein E 1 is randomly selected encoding, and wherein the following conditions are met: - E 0 = E 1 ∘ ⊕ k ∘ S − 1 ∘ A 1 − 1 ∘ S ∘ ⊕ k - and - E p = E 0 ∘ ⊕ k ∘ S − 1 ∘ A p − 1 ∘ S ∘ ⊕ k wherein ⊕ k denotes a key addition. - receiving an encoding selection parameter p that specifies one of a plurality of different external input encodings (E 1,E 2); - receiving the encoded input message, wherein the encoding on the input message corresponds to the encoding selection parameter p; - decoding the encoded input message using an inverse (E 0 -1) of a default external input encoding (Eo); - computing a first portion (S ∘ ⊕ k) of the keyed cryptographic operation on the decoded input message to produce a first portion output; and - compensating the first portion output based upon the encoding selection parameter p, - the first portion output being encoded by a function based on a randomly chosen bijective linear function A p and wherein compensating the first portion output includes applying the inverse of the function based on A p, and - wherein E p is the encoding on the input message, wherein E 0 is the encoding corresponding to the default decoding, wherein the functions A 1 and A p are randomly chosen bijective linear functions, wherein S is a substitution box, wherein E 1 is randomly selected encoding, and wherein the following conditions are met: - E 0 = E 1 ∘ ⊕ k ∘ S − 1 ∘ A 1 − 1 ∘ S ∘ ⊕ k - and - E p = E 0 ∘ ⊕ k ∘ S − 1 ∘ A p − 1 ∘ S ∘ ⊕ k wherein ⊕ k denotes a key addition. - E 0 = E 1 ∘ ⊕ k ∘ S − 1 ∘ A 1 − 1 ∘ S ∘ ⊕ k - and - E p = E 0 ∘ ⊕ k ∘ S − 1 ∘ A p − 1 ∘ S ∘ ⊕ k wherein ⊕ k denotes a key addition.
A connector assembly comprising: a receptacle connector comprising a receptacle connector housing having an interior cavity, the receptacle connector comprising a latch element extending within the interior cavity of the receptacle housing, the receptacle housing holding a receptacle connector contact; and a plug connector comprising a plug connector housing engaged with the receptacle connector housing, the plug connector housing holding a plug connector contact, the plug connector contact being engaged with the receptacle connector contact, the plug connector comprising a latch arm extending outwardly from the plug connector housing, the latch arm comprising a latch member received within the interior cavity of the receptacle connector housing, the latch member being engaged with the latch element of the receptacle connector entirely within the interior cavity of the receptacle connector housing, the connector assembly being characterised in that the latch arm of the mating plug connector extends a length from an actuation end to an engagement end, the engagement end comprising the latch member, the latch member being movable between a latched position and an unlatched position, the actuation end comprising a release tab for moving the latch arm from the latched position to the unlatched position, wherein the plug connector housing comprises a recess, at least a portion of the release tab being received within the recess. a receptacle connector comprising a receptacle connector housing having an interior cavity, the receptacle connector comprising a latch element extending within the interior cavity of the receptacle housing, the receptacle housing holding a receptacle connector contact; and a plug connector comprising a plug connector housing engaged with the receptacle connector housing, the plug connector housing holding a plug connector contact, the plug connector contact being engaged with the receptacle connector contact, the plug connector comprising a latch arm extending outwardly from the plug connector housing, the latch arm comprising a latch member received within the interior cavity of the receptacle connector housing, the latch member being engaged with the latch element of the receptacle connector entirely within the interior cavity of the receptacle connector housing, the connector assembly being characterised in that the latch arm of the mating plug connector extends a length from an actuation end to an engagement end, the engagement end comprising the latch member, the latch member being movable between a latched position and an unlatched position, the actuation end comprising a release tab for moving the latch arm from the latched position to the unlatched position, wherein the plug connector housing comprises a recess, at least a portion of the release tab being received within the recess.
Partial high beam module for a motor vehicle headlight, with a light source field comprising n adjacent, successive pairs of light sources (16.1,..., 16.n), whereby n is greater than or equal to 3 and whereby each of the light sources is designed to radiate light in a light bundle comprising a primary light radiation direction, with a primary optic field comprising n primary optic sub-areas (22.1,..., 22.n), whereby each primary optic sub-area comprises exactly one collecting lens (38.1,..., 38.n) comprising a light intake surface and a light output surface, convexly shaped in two spatial directions, whereby each collecting lens is assigned exactly one light source and each light source is assigned exactly one collecting lens such that the collecting lens lies in the light bundle emitted by the assigned light source and divides the primary radiation direction of this light source, and with a secondary optic unit designed and arranged to project a light distribution in a space before the headlight that is based on the light output surfaces of the primary optic field when the light sources are activated and comprising multiple adjacent, striped light fields, whereby each projected light field is generated by light from one of the light sources and formation of the light output surface of the collecting lens illuminated by this light source, whereby a primary optic sub-area (22.n) the furthest out to the side, in addition to its collecting lens (38.n), comprises an additional optic element positioned next to its collecting lens, characterised in that the optic element is designed to direct light cast from the light source assigned to this primary optic sub-area (22.n), propagated past this collecting lens, onto the secondary optic unit, whereby the intensity of this light is minor compared to that of the light redirected by the collecting lens, and becomes less intense with distance, so that, for the outermost primary optic sub-area, there is a light field that is sharply demarcated from the closest adjacent light field of the adjacent primary optic sub-area and that is not outwardly sharply demarcated, and rather gradually fades into the non-illuminated area even further outward.
An ink composition comprising, a liquid dispersion of: Ti hydride powder having a mean particle size of less than 10.0 microns; a liquid carrier; and at least one surfactant. Ti hydride powder having a mean particle size of less than 10.0 microns; a liquid carrier; and at least one surfactant.
A storage wagon for bulk material, including a loading container which is mobile on on-track undercarriages and has a bottom conveyor belt extending the longitudinal direction of the wagon, and a transfer conveyor belt for passing on the stored bulk material in a conveying direction, the transfer conveyor belt adjoining a transfer end of the bottom conveyor belt and projecting beyond a front end of the wagon, and also including an auxiliary conveyor belt arranged at an upper end of the loading container and extending in the longitudinal direction of the wagon, characterized by the following features: a) arranged above the transfer end of the bottom conveyor belt and underneath a discharge end of the auxiliary conveyor belt is a deflector plate extending perpendicularly to the longitudinal direction of the wagon, b) the deflector plate is designed to be pivotable about a pivot axis relative to the loading container for changing a deflection angle α enclosed with a conveying plane of the bottom conveyor belt, c) the bottom conveyor belt is designed for reversal of the conveying direction 12. a) arranged above the transfer end of the bottom conveyor belt and underneath a discharge end of the auxiliary conveyor belt is a deflector plate extending perpendicularly to the longitudinal direction of the wagon, b) the deflector plate is designed to be pivotable about a pivot axis relative to the loading container for changing a deflection angle α enclosed with a conveying plane of the bottom conveyor belt, c) the bottom conveyor belt is designed for reversal of the conveying direction 12.
Compression bandage that has the form of a knit obtained by warp stitch technology, based on synthetic yarns which is made up of two textile surfaces whose textile structure is identical or different connected to each other by spacer yarns, each textile surface comprising elastic yarns and the spacer yarn being a monofilament, said knit has a longitudinal elongation measured according to standard EN 14704 -1 of between 30 and 160%, characterized in that the textile surface coming into contact with the skin has synthetic multifilament yarns, the filaments of which have a count of between 1.2 and 5 dtex and the number of filaments of each multifilament yarn is between 15 and 150, and the textile surface coming into contact with the skin has a dynamic coefficient of friction measured according to standard EN ISO 8295 greater than or equal to 0.25 and less than or equal to 1.2 wherein the side coming into contact with the skin has a quantity of multifilament thermoplastic yarns of around 15 to 40% by mass percentage relative to the total weight of the 3D knit and typically around 20 to 25%, and the textile surface coming into contact with the skin is a physically-treated surface with a physical treatment chosen among napping, brushing or sueding.