mhurhangee/ep-ind-claims huggingface dataset:
A lighting unit, in particular for a work area in a household appliance, for example, for the drum of a washing machine, of a laundry drier or the like, having a printed circuit board, having a lamp arranged on the printed circuit board and having a socket for holding the printed circuit board, wherein the printed circuit board is arranged on a holding part, in such a way that a good heat conducting contact is established between the printed circuit board and the holding part, wherein the holding part is attached to the socket, in particular by clamping to the socket, in such a way that a good heat transmission is established from the holding part to the socket, wherein the holding part has a pocket, into which the printed circuit board is inserted for fastening, wherein the holding part is used to supply the electrical voltage for the lamp, and wherein the printed circuit board is electrically contacted to the pocket, characterized in that the holding part comprises an elongated rod element, that pocket is formed on the one end of the rod element and a plug connection and/or solder connection is formed on the other end of the rod element for the connection to the electrical supply voltage, and that the pocket is designed hook-shaped.
A method for manufacturing a burring processed product comprising a burring processed portion forming process of increasing a diameter of a prepared hole provided in a metal component and bending a part of the metal component to form a burring processed portion including an upright portion and a curved portion, wherein, in a cross-section that passes through an axis of the burring processed portion and is parallel to the axis of the burring processed portion, a cross-sectional shape of the curved portion on an inner surface of the curved portion consists of a curve, and is characterized in that a length of the curved portion in a direction perpendicular to the axis of the burring processed portion is at least 1.2 times a height of the curved portion in a direction parallel to the axis of the burring processed portion.
A transmitting device for a wireless communication system, the transmitting device being configured to: • replace bits of a bit field f n with padded bits so as to obtain first control information with embedded padded bits, wherein the first control information before replacing the bits of the bit field f n with padded bits contains a plurality of information bit fields f 1,..., f n,..., f N; • obtain a first cyclic redundancy check, CRC, word W 1 based on encoding the first control information with the embedded padded bits using a first CRC generator polynomial (step 202); • append the first CRC word W 1 to the first control information with the embedded padded bits; • obtain a second CRC word W 2 based on encoding the first control information with the embedded padded bits using a second CRC generator polynomial (step 204), or, obtain the second CRC word W 2 based on encoding the first control information with the embedded padded bits together with the appended first CRC word W 1 using the second CRC generator polynomial (step 204); • replace the embedded padded bits by the second CRC word W 2, thereby arriving at second control information; • form a control message based on the second control information; • transmit the control message to a receiving device (step 208). • replace bits of a bit field f n with padded bits so as to obtain first control information with embedded padded bits, wherein the first control information before replacing the bits of the bit field f n with padded bits contains a plurality of information bit fields f 1,..., f n,..., f N; • obtain a first cyclic redundancy check, CRC, word W 1 based on encoding the first control information with the embedded padded bits using a first CRC generator polynomial (step 202); • append the first CRC word W 1 to the first control information with the embedded padded bits; • obtain a second CRC word W 2 based on encoding the first control information with the embedded padded bits using a second CRC generator polynomial (step 204), or, obtain the second CRC word W 2 based on encoding the first control information with the embedded padded bits together with the appended first CRC word W 1 using the second CRC generator polynomial (step 204); • replace the embedded padded bits by the second CRC word W 2, thereby arriving at second control information; • form a control message based on the second control information; • transmit the control message to a receiving device (step 208).
Hand-portable working apparatus, wherein the working apparatus has: - a working device, - at least one handle, wherein the handle is at least partially arranged behind the working device along a longitudinal axis (x) of the working apparatus, and wherein at least the handle defines a handle opening, wherein the handle opening extends approximately along the longitudinal axis (x), and - a transport eyelet, wherein the transport eyelet is arranged approximately at or before a front end of the handle opening along the longitudinal axis (x), and wherein at least the transport eyelet defines an eyelet opening, wherein, in an attaching and/or detaching position of the transport eyelet, an eyelet opening normal of the eyelet opening is oriented approximately along a vertical axis (z) of the working apparatus, - wherein the working apparatus is a leaf blower (1ʺʺ) or a saw, in particular a chainsaw (1"), in particular a top-handle saw, and/or wherein the working device has, in particular is, a blowing tube or a saw rail and a saw chain (2"), characterized in - that the transport eyelet is arranged to the side of the handle opening in a transverse direction (y) of the working apparatus. - a working device, - at least one handle, wherein the handle is at least partially arranged behind the working device along a longitudinal axis (x) of the working apparatus, and wherein at least the handle defines a handle opening, wherein the handle opening extends approximately along the longitudinal axis (x), and - a transport eyelet, wherein the transport eyelet is arranged approximately at or before a front end of the handle opening along the longitudinal axis (x), and wherein at least the transport eyelet defines an eyelet opening, wherein, in an attaching and/or detaching position of the transport eyelet, an eyelet opening normal of the eyelet opening is oriented approximately along a vertical axis (z) of the working apparatus, - wherein the working apparatus is a leaf blower (1ʺʺ) or a saw, in particular a chainsaw (1"), in particular a top-handle saw, and/or wherein the working device has, in particular is, a blowing tube or a saw rail and a saw chain (2"), characterized in wherein the working device has, in particular is, a blowing tube or a saw rail and a saw chain (2"), characterized in - that the transport eyelet is arranged to the side of the handle opening in a transverse direction (y) of the working apparatus.
A power generation system for generating electric power in a wellbore formed in a subterranean formation, the power generation system comprising: a source of pressurized fluid; a thermoelectric generator operable to generate a voltage in response to an applied temperature differential; and a vortex tube (152, 200) operatively coupled to the thermoelectric generator to apply the temperature differential thereto, the vortex tube (152, 200) comprising: an elongate hollow body (168, 202); an inlet (170, 204) in fluid communication with the source of pressurized fluid; a first outlet (172, 208) in thermal communication with a radially outer region (178a, 218a) of the elongate hollow body (168, 202), the first outlet (172, 208) operatively associated with a high temperature input to the thermoelectric generator; and a second outlet (180, 212) in thermal communication with a radially inner region (178b, 218b) of the elongate hollow body (168, 202), the second outlet (180, 212) operatively associated with a low temperature input to the thermoelectric generator. a source of pressurized fluid; a thermoelectric generator operable to generate a voltage in response to an applied temperature differential; and a vortex tube (152, 200) operatively coupled to the thermoelectric generator to apply the temperature differential thereto, the vortex tube (152, 200) comprising: an elongate hollow body (168, 202); an inlet (170, 204) in fluid communication with the source of pressurized fluid; a first outlet (172, 208) in thermal communication with a radially outer region (178a, 218a) of the elongate hollow body (168, 202), the first outlet (172, 208) operatively associated with a high temperature input to the thermoelectric generator; and a second outlet (180, 212) in thermal communication with a radially inner region (178b, 218b) of the elongate hollow body (168, 202), the second outlet (180, 212) operatively associated with a low temperature input to the thermoelectric generator. an elongate hollow body (168, 202); an inlet (170, 204) in fluid communication with the source of pressurized fluid; a first outlet (172, 208) in thermal communication with a radially outer region (178a, 218a) of the elongate hollow body (168, 202), the first outlet (172, 208) operatively associated with a high temperature input to the thermoelectric generator; and a second outlet (180, 212) in thermal communication with a radially inner region (178b, 218b) of the elongate hollow body (168, 202), the second outlet (180, 212) operatively associated with a low temperature input to the thermoelectric generator.
A charging station for recharging batteries in a medical environment, comprising: a housing comprising an inlet for batteries at a top of the housing, an outlet for charged batteries below the inlet, and a vertical channel extending between the inlet and outlet; a wireless power transmitter inside the housing, wherein the wireless power transmitter comprises a transmitting antenna configured to wirelessly charge a plurality of rechargeable batteries simultaneously by transmitting wireless power to a wireless power receiver of each of the plurality of batteries, wherein the transmitting antenna, in operation, is configured to charge the plurality of batteries independent of orientation in the charging station, and wherein the transmitting antenna has a vertical length that is longer than a horizontal width, and wherein the horizontal width increases in a middle section of the transmitting antenna to create a bulged shape, the transmitting antenna sized to charge at least two batteries simultaneously in the different orientations; a status light on the housing; and a power supply connected to the housing. a housing comprising an inlet for batteries at a top of the housing, an outlet for charged batteries below the inlet, and a vertical channel extending between the inlet and outlet; a wireless power transmitter inside the housing, wherein the wireless power transmitter comprises a transmitting antenna configured to wirelessly charge a plurality of rechargeable batteries simultaneously by transmitting wireless power to a wireless power receiver of each of the plurality of batteries, wherein the transmitting antenna, in operation, is configured to charge the plurality of batteries independent of orientation in the charging station, and wherein the transmitting antenna has a vertical length that is longer than a horizontal width, and wherein the horizontal width increases in a middle section of the transmitting antenna to create a bulged shape, the transmitting antenna sized to charge at least two batteries simultaneously in the different orientations; a status light on the housing; and a power supply connected to the housing.
An osmotic power generator comprising - a housing, - an active membrane mounted in the housing, - at least a first chamber disposed on a first side of the active membrane for receiving a first electrolyte liquid and a second chamber disposed on a second side of the active membrane for receiving a second electrolyte liquid, - a generator circuit comprising at least a first electrode electrically coupled to said first chamber, and at least a second electrode electrically coupled to said second chamber, the first and second electrodes configured to be connected together through a generator load receiving electrical power generated by a difference in potential and an ionic current between the first and second electrodes, the osmotic power generator being characterized in that - the active membrane including at least one pore allowing ions to pass between the first and second sides of the active membrane under osmosis due to an osmotic gradient between the first and second electrolyte liquids to generate said difference in potential and ionic current between the first and second electrodes, wherein the active membrane comprises or consists of a thin layer of 2D material having a thickness ( Hm) from about 0.3 nm to 5 nm, and the at least one pore has an average diameter ( Dp) from about 2 nm to about 25 nm. - a housing, - an active membrane mounted in the housing, - at least a first chamber disposed on a first side of the active membrane for receiving a first electrolyte liquid and a second chamber disposed on a second side of the active membrane for receiving a second electrolyte liquid, - a generator circuit comprising at least a first electrode electrically coupled to said first chamber, and at least a second electrode electrically coupled to said second chamber, the first and second electrodes configured to be connected together through a generator load receiving electrical power generated by a difference in potential and an ionic current between the first and second electrodes, the osmotic power generator being characterized in that - the active membrane including at least one pore allowing ions to pass between the first and second sides of the active membrane under osmosis due to an osmotic gradient between the first and second electrolyte liquids to generate said difference in potential and ionic current between the first and second electrodes,
A microfluidic chip, comprising: a bottom plate comprising: at least one wave-shaped main channel comprising at least one valley and at least one peak, wherein the ratio between the narrowest and the widest cross sectional areas in the V-shaped portion of said main channel is between 0.3 and 0.4, and wherein the cross sectional area of said peak is smaller than that of said valley; at least one sample inlet port; at least one exhaust port; and at least one reaction chamber, wherein the volume of said reaction chamber is between 0.1 μL and 5 μL, wherein one end of said at least one wave-shaped main channel is connected to said at least one sample inlet port, and the other end is connected to said at least one exhaust port, wherein said at least one valley points away from the center of said bottom plate, and said at least one peak points toward the center of said bottom plate, and wherein said at least one valley of said main channel is connected to said at least one reaction chamber; and a cover plate fittingly engaging said bottom plate. a bottom plate comprising: at least one wave-shaped main channel comprising at least one valley and at least one peak, wherein the ratio between the narrowest and the widest cross sectional areas in the V-shaped portion of said main channel is between 0.3 and 0.4, and wherein the cross sectional area of said peak is smaller than that of said valley; at least one sample inlet port; at least one exhaust port; and at least one reaction chamber, wherein the volume of said reaction chamber is between 0.1 μL and 5 μL, wherein one end of said at least one wave-shaped main channel is connected to said at least one sample inlet port, and the other end is connected to said at least one exhaust port, wherein said at least one valley points away from the center of said bottom plate, and said at least one peak points toward the center of said bottom plate, and wherein said at least one valley of said main channel is connected to said at least one reaction chamber; and at least one wave-shaped main channel comprising at least one valley and at least one peak, wherein the ratio between the narrowest and the widest cross sectional areas in the V-shaped portion of said main channel is between 0.3 and 0.4, and wherein the cross sectional area of said peak is smaller than that of said valley; at least one sample inlet port; at least one exhaust port; and at least one reaction chamber, a cover plate fittingly engaging said bottom plate.
Integrated circuit card comprising: - an input/output block for receiving external command data from an interface device; - a central processing unit, CPU, in signal communication with the input/output block for performing a task corresponding to the received command data; - a judgement block in signal communication with the central processing unit for judging whether a working time of the central processing unit reaches a reference time, after an input of the external command data is completed; and - a control block in signal communication with the judgement block for operating responsive to an output of the judgement block, characterized in that the control block controls such that a S(WTX request), which is a block transmitted from the integrated circuit card to the interface device in order to gain an additional working time, is output via the input/output block without intervention by the central processing unit whenever the interface device connected to the integrated circuit card transmits a command to the integrated circuit card and the integrated circuit card is not able to respond to this command within the defined maximum waiting time, which corresponds to the time given to the integrated circuit card to respond to a command of the interface device, wherein the judgement block sets the input/output block to a reception mode when transmission of the procedure data, which is an S(WTX request) block, has been ended. - an input/output block for receiving external command data from an interface device; - a central processing unit, CPU, in signal communication with the input/output block for performing a task corresponding to the received command data; - a judgement block in signal communication with the central processing unit for judging whether a working time of the central processing unit reaches a reference time, after an input of the external command data is completed; and - a control block in signal communication with the judgement block for operating responsive to an output of the judgement block, characterized in that the control block controls such that a S(WTX request), which is a block transmitted from the integrated circuit card to the interface device in order to gain an additional working time, is output via the input/output block without intervention by the central processing unit whenever the interface device connected to the integrated circuit card transmits a command to the integrated circuit card and the integrated circuit card is not able to respond to this command within the defined maximum waiting time, which corresponds to the time given to the integrated circuit card to respond to a command of the interface device, wherein the judgement block sets the input/output block to a reception mode when transmission of the procedure data, which is an S(WTX request) block, has been ended.
A method for adjusting work function of an anode formed of a metal nanostructure-based conductive film, the method comprising: providing a plurality of metal nanostructures, each metal nanostructure having an outer surface; and forming a dipole surface layer on the outer surface of the metal nanostructure, wherein the dipole surface layer includes a plurality of dipole ligands oriented in such a way that the negative end of the dipole ligands adsorb to the outer surface of the metal nanostructure and characterized in that: the dipole ligands are present at 10 -6 to 10 -4 moles per m 2 surface area of the metal nanostructure. providing a plurality of metal nanostructures, each metal nanostructure having an outer surface; and forming a dipole surface layer on the outer surface of the metal nanostructure, wherein the dipole surface layer includes a plurality of dipole ligands oriented in such a way that the negative end of the dipole ligands adsorb to the outer surface of the metal nanostructure and characterized in that: the dipole ligands are present at 10 -6 to 10 -4 moles per m 2 surface area of the metal nanostructure.
A machine for manufacturing pouches of at least one of a nasal snuff and a moist snuff for oral use, comprising a dispensing disc with cavities, rotatable about an axis, a station at which each cavity is filled with a predetermined portion of snuff, the filling station comprising a hopper from which portions of snuff are fed and dosed into each cavity of the dispensing disc, the machine comprising means by which the portion of snuff is ejected from the dispensing disc at a transfer station, a station at which the portion of snuff is wrapped in a relative pouch, means by which the transfer station and the wrapping station are interconnected, and ejection means embodied as mechanical pushing means designed to engage at least one of the cavities, wherein the filling station comprises skimming means located downstream of the hopper, relative to a direction of rotation of the dispending disc, serving to remove any excess snuff from the cavity.
An apparatus, comprising: a lighting unit comprising at least one first light source to generate first radiation having a first spectrum and at least one second light source to generate second radiation having a second spectrum different from the first spectrum, wherein the lighting unit has a maximum power handling capability; and at least one controller configured to allocate a first operating power for the at least one first light source and a second operating power for the at least one second light source characterised in that the apparatus is configured such that a maximum available operating power for each of the at least one first light source and the at least one second light source is equal to the maximum power handling capability of the lighting unit, the at least one controller being further configured to reapportion prescribed operating powers for the at least one first and second light sources (104A; 104B) in response to a given lighting command whereby the sum of the operating powers does not exceed the maximum power handling capability of the lighting unit. a lighting unit comprising at least one first light source to generate first radiation having a first spectrum and at least one second light source to generate second radiation having a second spectrum different from the first spectrum, wherein the lighting unit has a maximum power handling capability; and at least one controller configured to allocate a first operating power for the at least one first light source and a second operating power for the at least one second light source characterised in that the apparatus is configured such that a maximum available operating power for each of the at least one first light source and the at least one second light source is equal to the maximum power handling capability of the lighting unit, the at least one controller being further configured to reapportion prescribed operating powers for the at least one first and second light sources (104A; 104B) in response to a given lighting command whereby the sum of the operating powers does not exceed the maximum power handling capability of the lighting unit.