mhurhangee/ep-ind-claims huggingface dataset:
A power management integrated circuit, PMIC, comprising: a plurality of modules (330.1, 330.2, 330.N), each module configured to process power to or from a corresponding off-chip power entity; a temperature sensor configured to sense a temperature of the PMIC on which the plurality of modules (330.1, 330.2, 330.N) is provided; a thermal controller configured to adjust a power processed by each of said plurality of modules (330.1, 330.2, 330.N) in response to the sensed temperature, wherein the thermal controller and the plurality of modules (330.1, 330.2, 330.N) are provided on the PMIC, wherein the thermal controller is configured to adjust a current scaling factor of each module to adjust said power processed by each of said plurality of modules (330.1, 330.2, 330.N), wherein the thermal controller is configured to reduce the current scaling factor of at least one module (330.1, 330.2, 330.N) in response to the sensed temperature being above a threshold, wherein the thermal controller is configured to reduce the current scaling factor of each module to no less than a minimum current scaling factor; characterised in that the thermal controller is configured to reduce current scaling factors of the plurality of modules (330.1, 330.2, 330.N) in succession in response to the sensed temperature being above a first threshold, the succession being determined by a plurality of scaling priority registers. a plurality of modules (330.1, 330.2, 330.N), each module configured to process power to or from a corresponding off-chip power entity; a temperature sensor configured to sense a temperature of the PMIC on which the plurality of modules (330.1, 330.2, 330.N) is provided; a thermal controller configured to adjust a power processed by each of said plurality of modules (330.1, 330.2, 330.N) in response to the sensed temperature, wherein the thermal controller and the plurality of modules (330.1, 330.2, 330.N) are provided on the PMIC, wherein the thermal controller is configured to adjust a current scaling factor of each module to adjust said power processed by each of said plurality of modules (330.1, 330.2, 330.N), wherein the thermal controller is configured to reduce the current scaling factor of at least one module (330.1, 330.2, 330.N) in response to the sensed temperature being above a threshold, wherein the thermal controller is configured to reduce the current scaling factor of each module to no less than a minimum current scaling factor;
A method comprising: receiving, by a computing device, image data from a camera of the computing device, the image data comprising a plurality of frames; generating, for each of the frames of the image data, by the computing device, an image pyramid comprising multiple levels of an image in the image data subsampled at various resolutions for each level; initiating, by the computing device, transfer of image data corresponding to at least one predetermined level of the image pyramid comprising higher resolution to a graphic processing unit, GPU, of the computing device; calculating, by a central processing unit, CPU, of the computing device, optical flow of at least one predetermined coarse level of the image pyramid; transferring, by the CPU of the computing device, the calculated optical flow of the at least one predetermined coarse level of the image pyramid to the GPU; calculating, by the GPU of the computing device, the optical flow of the at least one predetermined level of the image pyramid comprising higher resolution; and outputting, by the GPU of the computing device, the optical flow of the image data. receiving, by a computing device, image data from a camera of the computing device, the image data comprising a plurality of frames; generating, for each of the frames of the image data, by the computing device, an image pyramid comprising multiple levels of an image in the image data subsampled at various resolutions for each level; initiating, by the computing device, transfer of image data corresponding to at least one predetermined level of the image pyramid comprising higher resolution to a graphic processing unit, GPU, of the computing device; calculating, by a central processing unit, CPU, of the computing device, optical flow of at least one predetermined coarse level of the image pyramid; transferring, by the CPU of the computing device, the calculated optical flow of the at least one predetermined coarse level of the image pyramid to the GPU; calculating, by the GPU of the computing device, the optical flow of the at least one predetermined level of the image pyramid comprising higher resolution; and outputting, by the GPU of the computing device, the optical flow of the image data.
A cooking appliance including a plinth and a drawer, wherein: - the cooking appliance includes a corpus arranged or arrangeable above the plinth, - the drawer is arranged or arrangeable in a lower portion of the corpus and above the plinth, - the plinth is connected or connectable to the corpus by a set of screws and a corresponding set of screw holes (38, 40), and - the cooking appliance includes a pair of elongated drawer rails for moving the drawer into and out of the corpus, characterized in, that the plinth is selectively connected or connectable to the corpus either at a predetermined front position in view of the corpus or at a predetermined back position in view of the corpus, each of the drawer rails is symmetric in respect of an axis and/or plane perpendicular to the longitudinal axis of said drawer rail, and the drawer rails are connected or connectable to a front wall of the plinth in the front position in view of the corpus and to a rear wall of the plinth in the back position in view of the corpus. - the cooking appliance includes a corpus arranged or arrangeable above the plinth, - the drawer is arranged or arrangeable in a lower portion of the corpus and above the plinth, - the plinth is connected or connectable to the corpus by a set of screws and a corresponding set of screw holes (38, 40), and - the cooking appliance includes a pair of elongated drawer rails for moving the drawer into and out of the corpus,
An apparatus arranged to heat smokable material to volatilise at least one component of said smokable material, the apparatus comprising: a housing; the housing having a first opening at a first end through which smokable material can pass so as to be received within and removed from the apparatus in use; the housing having a second opening at a second end opposed from the first end; the housing having a chamber between the first and second openings (30, 35); at least one heater arranged within the housing for heating smokable material removably received within the chamber in use; and a hollow tube located within the chamber at the second end to provide a region of reduced internal diameter towards the second end to provide a stop for smokable material passed through the first opening in use; whereby a user can access the chamber through at least the second opening to clean within the apparatus, wherein the first end is a mouth end and the second end is a distal end. a housing; the housing having a first opening at a first end through which smokable material can pass so as to be received within and removed from the apparatus in use; the housing having a second opening at a second end opposed from the first end; the housing having a chamber between the first and second openings (30, 35); at least one heater arranged within the housing for heating smokable material removably received within the chamber in use; and a hollow tube located within the chamber at the second end to provide a region of reduced internal diameter towards the second end to provide a stop for smokable material passed through the first opening in use; whereby a user can access the chamber through at least the second opening to clean within the apparatus, wherein the first end is a mouth end and the second end is a distal end.
A sealing film for a solar cell comprising ethylene/vinyl acetate copolymer and organic peroxide, which comprises as the organic peroxide dialkylperoxide of a formula II: in which R 3 s represent alkyl group having 1 to 3 carbon atoms independently with each other, R 4 represents a branched alkyl group having 3 to 5 carbon atoms, and R 5 represents a branched alkyl group having 3 to 5 carbon atoms, characterised in that the sealing film comprises 2,2-dihydroxy-4,4-dimethoxybenzophenon as an ultraviolet absorber and less than 0.2 parts by weight, based on 100 parts by weight of ethylene/vinyl acetate copolymer, of monohydroxyalkoxybenzophenon as an ultraviolet absorber to prevent yellowing.
A multi-view display device which is switchable between a single view and a multiple view mode, the display comprising a display panel having rows and columns of pixels, and lenticular lens means arranged over the display panel on the display output side of the display panel, the lenticular lens means comprising an array of lenticular lens elements (60,62) which comprise birefringent electro-optic material adjacent a non-switchable optically transparent layer to define the lenticular lens element, wherein the refractive index of the electro-optic material is controllable to define the single view and the multiple view mode of operation of the display device, wherein the non-switchable optically transparent layer has a refractive index (n) substantially equal to the extra ordinary refractive index of the birefringent electro-optic material, wherein the polarization direction of the light output from the display panel and incident on the lenticular lens means is linear, wherein in the single view mode the birefringent electro-optic material defines a first state in which its optical axis is aligned with the polarization direction of the light output from the display panel at the surface where the display output light enters the birefringent electro optic material, and the optical axis of the birefringent electro-optic material at the surface of the non-switchable optically transparent layer is aligned with the elongate axes of the lenticular lens elements or with the pixel column direction, and in the multi-view mode, the birefringent electro-optic material defines a second state in which the optical axis of the birefringent electro optic material is aligned perpendicularly to the display output surface.
A method for producing a positive electrode active material for a non-aqueous electrolyte secondary battery, comprising: a first step of adding and mixing an alkali solution in which a tungsten compound is dissolved, to and with a lithium metal composite oxide powder made of primary particles represented by general formula Li z Ni 1-x-y Co x M y O 2, wherein 0 ≤ x ≤ 0.1, 0 ≤ y ≤ 0.1 and 0.97 ≤ z ≤ 1.20, and M is at least one element selected from the group consisting of Mn, W, Mg, Mo, Nb, Ti, Si and Al, and secondary particles formed by aggregation of the primary particles, and a second step of thermally treating the alkali solution and the lithium metal composite oxide powder mixed, at a temperature of 100 to 600°C, wherein an amount of the alkali solution to be added in the first step is 0.1 to 10% by mass relative to the lithium metal composite oxide powder. a first step of adding and mixing an alkali solution in which a tungsten compound is dissolved, to and with a lithium metal composite oxide powder made of primary particles represented by general formula Li z Ni 1-x-y Co x M y O 2, wherein 0 ≤ x ≤ 0.1, 0 ≤ y ≤ 0.1 and 0.97 ≤ z ≤ 1.20, and M is at least one element selected from the group consisting of Mn, W, Mg, Mo, Nb, Ti, Si and Al, and secondary particles formed by aggregation of the primary particles, and a second step of thermally treating the alkali solution and the lithium metal composite oxide powder mixed, at a temperature of 100 to 600°C, wherein an amount of the alkali solution to be added in the first step is 0.1 to 10% by mass relative to the lithium metal composite oxide powder.
A device for adjusting and/or changing a damping medium profile, which extends in the direction of a printing width, in a printing unit (11, 21) comprising at least one printing unit cylinder (13, 19), at least one inking unit which inks the printing unit cylinder (13, 19), and at least one damping unit which interacts with the printing unit cylinder (13, 19) and/or the inking unit, where a drying device which extends over the printing width is provided with a number I (I ∈, I>1) of drying elements (41 k), the influence of which on a printing unit (11, 21) surface to be treated allows moisture to be removed from a number of n (n ∈, n > 1) axial portions a j (j = 1,..., n) that are offset relative to one another in the direction of the printing width and the extent of the influence of which with respect to the axial portion (a j) and/or the operating state of which can be varied independently of one another, characterized in that the drying elements (41 k) are designed and arranged in the printing unit (11; 21) such that at least 20% of the width (b j), when seen in the direction of the printing width, of multiple or all of the axial portions (a j), which are designed as active portions (a j) with an active width (b j) of the drying elements (41 k) in the printing unit (11; 21), over the extension of said portions overlaps with an adjacent axial portion of the axial portions (a j), which are axially offset relative to one another in the direction of the printing width.
A rocker arm for switching between a first valve lift profile and a second valve lift profile, comprising: a supply bore for receiving one of a high pressure fluid and a low pressure fluid; a supply path (103, 1030) in to the rocker arm (110, 11, 12) from the supply bore; a first lash bore in fluid communication with the supply path; a first spool bore; a spool in the spool bore, the spool comprising a spool notch, the spool configured to reciprocate in the spool bore; at least a first spool path in fluid communication with the spool and the first lash bore; a second lash bore; a second spool path in fluid communication with the spool and the second lash bore; an accumulator path in fluid communication with the spool; and a hydraulic lash device in the first lash bore, the lash device comprising an inner body and an outer body, wherein the outer body is configured to collapse during the first valve lift profile when receiving the low pressure fluid, and wherein the outer body and the inner body are configured to cooperate rigidly when receiving the high pressure fluid during the second valve lift profile, wherein, the spool is movable to a first spool position to align the spool notch with the first spool path and the second spool path, and the spool is movable to a second spool position to align the spool notch with the second spool path and the accumulator path. a supply bore for receiving one of a high pressure fluid and a low pressure fluid; a supply path (103, 1030) in to the rocker arm (110, 11, 12) from the supply bore; a first lash bore in fluid communication with the supply path; a first spool bore; a spool in the spool bore, the spool comprising a spool notch, the spool configured to reciprocate in the spool bore; at least a first spool path in fluid communication with the spool and the first lash bore; a second lash bore; a second spool path in fluid communication with the spool and the second lash bore; an accumulator path in fluid communication with the spool; and a hydraulic lash device in the first lash bore, the lash device comprising an inner body and an outer body, wherein the outer body is configured to collapse during the first valve lift profile when receiving the low pressure fluid, and wherein the outer body and the inner body are configured to cooperate rigidly when receiving the high pressure fluid during the second valve lift profile, wherein, the spool is movable to a first spool position to align the spool notch with the first spool path and the second spool path, and the spool is movable to a second spool position to align the spool notch with the second spool path and the accumulator path.
A device for delivering a supply of gases to a user comprising: a patient interface, in use in fluid communication with said supply of gases and supplying said gases to said user, wherein said patient interface is a mask, said mask comprising a mask body; and an outlet vent comprising a slot formed in the mask body and a cover integrated with or attached to said mask body and extending over said slot, characterised in that said cover comprises a top edge and a bottom edge, said bottom edge being shorter in length than said top edge, such that the width of the cover increases from the bottom edge to the top edge, and wherein the boundary between said cover and said mask body forms said outlet vent that, in use, passes a substantial portion of the expired gases of said user and wherein the separation between said mask body and said cover increases to the top edge of said cover in order to diffuse said exhaled gases. a patient interface, in use in fluid communication with said supply of gases and supplying said gases to said user, wherein said patient interface is a mask, said mask comprising a mask body; and an outlet vent comprising a slot formed in the mask body and a cover integrated with or attached to said mask body and extending over said slot, characterised in that said cover comprises a top edge and a bottom edge, said bottom edge being shorter in length than said top edge, such that the width of the cover increases from the bottom edge to the top edge, and wherein the boundary between said cover and said mask body forms said outlet vent that, in use, passes a substantial portion of the expired gases of said user and wherein the separation between said mask body and said cover increases to the top edge of said cover in order to diffuse said exhaled gases.
Module assembly with a plurality of functional modules, which are lined up in a stacking direction and are connected to one another for fluidic and electric communication, wherein in each case at least one functional module is designed as a control module (4; 104; 204; 304) for providing and/or processing signals of functional modules lined up thereon, and at least one functional module is designed as a valve module (5; 205; 305) for influencing at least one fluid flow, and at least one functional module is designed as a signal processing module (6; 106; 206; 306) for processing and/or outputting electric signals from and/or to external components and in each case comprises a plate-shaped base body with two parallel and oppositely located joining surfaces (7, 8), the face normals of which determine the stacking direction and which are designed for contact with joining surfaces (7, 8) of adjacent base bodies, wherein the base body comprises connecting means (9, 10), which are designed for passing electric signals and/or electric supply voltages and/or fluid flows between adjacent functional modules along the stacking direction, and wherein several signal lines controllable by the control module (4; 104; 204; 304) for transmitting control signals provided for the direct control of individual functional modules extend along the stacking direction of the functional modules, characterised in that at least one storage device (48; 260; 360) for acquiring, buffering and transferring at least one electric signal of an external component is electrically looped into at least one signal line between the signal processing module (6; 106; 206; 306) and the control module (4; 104; 204; 304).
Method for the spaced connection of printed circuit boards including the steps: - providing -- at least one installation unit comprising --- a distance element having an intake opening and --- a cover element (25; 25a; 25b; 25c), which covers the intake opening, -- a fixing element (4; 4d) per installation unit, -- a first printed circuit board and -- a second printed circuit board to be connected with the first printed circuit board, - positioning and fixing the distance element on the first printed circuit board, - penetrating the cover element (25; 25a; 25b; 25c) in the region of the intake opening, - inserting the fixing element (4; 4d) into the intake opening, and - connecting the second printed circuit board with the first printed circuit board by means of the fixing element (4; 4d). - providing -- at least one installation unit comprising --- a distance element having an intake opening and --- a cover element (25; 25a; 25b; 25c), which covers the intake opening, -- a fixing element (4; 4d) per installation unit, -- a first printed circuit board and -- a second printed circuit board to be connected with the first printed circuit board, -- at least one installation unit comprising --- a distance element having an intake opening and --- a cover element (25; 25a; 25b; 25c), which covers the intake opening, --- a distance element having an intake opening and --- a cover element (25; 25a; 25b; 25c), which covers the intake opening, -- a fixing element (4; 4d) per installation unit, -- a first printed circuit board and -- a second printed circuit board to be connected with the first printed circuit board, - positioning and fixing the distance element on the first printed circuit board, - penetrating the cover element (25; 25a; 25b; 25c) in the region of the intake opening, - inserting the fixing element (4; 4d) into the intake opening, and - connecting the second printed circuit board with the first printed circuit board by means of the fixing element (4; 4d).
A removable memory device that transmits/receives data to and from a host terminal, comprising: a clock reception section for receiving a transmission/reception clock (CLKS), which is used for transmitting/receiving data between the host terminal and the removable memory device, from the host terminal; characterized by a generation section for generating a phase synchronization pattern, which is for adjusting a phase of arc internal reception clock which the host terminal incorporates for receiving data from the removable memory device, based on the transmission/reception clock (CLKS); and a transmission section (51, 53) for transmitting the generated phase synchronization pattern to the host terminal, wherein the phase synchronization pattern includes a first level signal which lasts for at least two cycles, and a second level signal which follows the first level signal and lasts for one cycle. a clock reception section for receiving a transmission/reception clock (CLKS), which is used for transmitting/receiving data between the host terminal and the removable memory device, from the host terminal; characterized by a generation section for generating a phase synchronization pattern, which is for adjusting a phase of arc internal reception clock which the host terminal incorporates for receiving data from the removable memory device, based on the transmission/reception clock (CLKS); and a transmission section (51, 53) for transmitting the generated phase synchronization pattern to the host terminal, wherein the phase synchronization pattern includes a first level signal which lasts for at least two cycles, and a second level signal which follows the first level signal and lasts for one cycle.