mhurhangee/ep-ind-claims huggingface dataset:
An induction unit for the inductive bonding of components in the multi-spot bonding method, wherein the induction unit has at least one inductor arranged on a holding device and is embodied as portable component unit, wherein the induction unit comprises a transformer, which is connected to the at least one inductor to form the portable component unit, wherein an inductor-side output of the transformer is directly connected to the at least one inductor via a high-current line, characterized in that an input of the transformer is connected to a low-current line for connection of the induction unit. wherein the induction unit comprises a transformer, which is connected to the at least one inductor to form the portable component unit, wherein an inductor-side output of the transformer is directly connected to the at least one inductor via a high-current line, characterized in that an input of the transformer is connected to a low-current line for connection of the induction unit.
A cable-type secondary battery comprising: two or more inner electrodes as anodes, each of which comprises a current collector and an anode active material layer formed on the current collector, the current collector having a horizontal cross section of a predetermined shape, extending in lengthwise direction and including a polymer core and a metal coating layer formed on the surface of the polymer core; an electrolyte layer as an ionic path filled to surround the inner electrodes; an outer electrode as a cathode surrounding the outer surface of the electrolyte layer and comprising a pipe-like current collector and a cathode active material layer formed on the current collector; and a protective cover disposed on the periphery of the outer electrode.
A light-emitting device assembly, comprising: a plurality of LED chips; a plurality of extendable metal wiring lines forming a predefined pattern and having been formed using a patterned photoresist layer as a mask; a plurality of electrodes (125,310); and a metal seed layer, wherein the metal seed layer is connected to the electrodes; one of the extendable metal wiring lines is connected to two of the plurality of electrodes, and the two electrodes are respectively connected to two of the plurality of the LED chips; and one of the extendable metal wiring lines is capable of extending in a distance along one axis while maintaining electrical connection with the plurality of the LED chips. a plurality of LED chips; a plurality of extendable metal wiring lines forming a predefined pattern and having been formed using a patterned photoresist layer as a mask; a plurality of electrodes (125,310); and a metal seed layer, wherein the metal seed layer is connected to the electrodes; one of the extendable metal wiring lines is connected to two of the plurality of electrodes, and the two electrodes are respectively connected to two of the plurality of the LED chips; and one of the extendable metal wiring lines is capable of extending in a distance along one axis while maintaining electrical connection with the plurality of the LED chips.
A forestry machine comprises at least one cabin, at least one boom and a control arrangement, wherein control arrangement comprises at least one sensor adapted to detect at least one object in the area of at least one predetermined sector, which sector is focused in the area between the cabin and boom end, and which sensor is further adapted to detect at least one of the following: the location data of said detected object on at least two different instants of time, and the speed of said detected object, as well as at least one control unit adapted to determine at least the direction of travel of said detected object in relation to the cabin at two different time instants, at least, on the basis of the detected location information and/or the detected speed of the object, check a need to cause a change in the control of a forest machine by checking a predetermined control criterion in response to the detected direction of movement of the detected object being directed towards the cabin in the area of said predetermined sector, and cause a change in the control of the forest machine in response to the detected direction of movement of the detected object being directed towards the cabin in the area of the predetermined sector and the fulfilling of said at least one predetermined control criterion. at least one sensor adapted to detect at least one object in the area of at least one predetermined sector, which sector is focused in the area between the cabin and boom end, and which sensor is further adapted to detect at least one of the following: the location data of said detected object on at least two different instants of time, and the speed of said detected object, as well as at least one control unit adapted to determine at least the direction of travel of said detected object in relation to the cabin at two different time instants, at least, on the basis of the detected location information and/or the detected speed of the object, check a need to cause a change in the control of a forest machine by checking a predetermined control criterion in response to the detected direction of movement of the detected object being directed towards the cabin in the area of said predetermined sector, and cause a change in the control of the forest machine in response to the detected direction of movement of the detected object being directed towards the cabin in the area of the predetermined sector and the fulfilling of said at least one predetermined control criterion.
A compression stocking comprising shape memory, heat-shrinkable thermoplastic material, wherein said stocking is configured to establish, in use, a compression contact with at least one of a leg and a foot of a user upon the application of an amount of heat to the shape memory, heat-shrinkable thermoplastic material, wherein the shape memory, heat-shrinkable thermoplastic material is arranged as a film, wherein the film of shape memory, heat-shrinkable thermoplastic material has a thickness of 0.01 mm - 0.2 mm, wherein the thermoplastic material is a polymer characterized in that it has a glass transition temperature below -10 °C, has crystallinity with a melting temperature (Tm) between 30-50 °C and a heat of fusion of at least 10 J/g, as determined using differential scanning calorimetry (-40°C/10.0(K/min)/100°C) as set out by the ASTM D3418:2003. wherein the shape memory, heat-shrinkable thermoplastic material is arranged as a film, wherein the film of shape memory, heat-shrinkable thermoplastic material has a thickness of 0.01 mm - 0.2 mm, wherein the thermoplastic material is a polymer characterized in that it has a glass transition temperature below -10 °C, has crystallinity with a melting temperature (Tm) between 30-50 °C and a heat of fusion of at least 10 J/g, as determined using differential scanning calorimetry (-40°C/10.0(K/min)/100°C) as set out by the ASTM D3418:2003.
An apparatus having a controller and a plurality of network devices coupled to the controller, characterized in that: the controller is adapted to determine at least one narrowband in a frequency band associated with a wideband network; and the controller is further adapted to select the at least one narrowband as a silent band, the silent band for use by one or more network devices that are not to transmit wideband signals; and the controller is further adapted to broadcast the silent band to the network devices. the controller is adapted to determine at least one narrowband in a frequency band associated with a wideband network; and the controller is further adapted to select the at least one narrowband as a silent band, the silent band for use by one or more network devices that are not to transmit wideband signals; and the controller is further adapted to broadcast the silent band to the network devices.
A method of processing echo pulses in a pulse-echo measurement system, the method comprising periodically carrying out the following steps: identifying a rising edge of a currently received echo; defining a rising edge reference point; fitting a parabolic curve to the rising edge; calculating an error correction value as being the lesser of (a) the distance in time from the rising edge reference point to the peak of the parabolic curve, or (b) the distance in time from the rising edge reference point to the peak amplitude of the echo; and adding this calculated error correction value to a previous error correction value using a first order filter to update this previous error correction value, which previous error correction value has been calculated for a previously received echo with the same steps as for the currently received echo. identifying a rising edge of a currently received echo; defining a rising edge reference point; fitting a parabolic curve to the rising edge; calculating an error correction value as being the lesser of (a) the distance in time from the rising edge reference point to the peak of the parabolic curve, or (b) the distance in time from the rising edge reference point to the peak amplitude of the echo; and adding this calculated error correction value to a previous error correction value using a first order filter to update this previous error correction value, which previous error correction value has been calculated for a previously received echo with the same steps as for the currently received echo. (a) the distance in time from the rising edge reference point to the peak of the parabolic curve, or (b) the distance in time from the rising edge reference point to the peak amplitude of the echo; and adding this calculated error correction value to a previous error correction value using a first order filter to update this previous error correction value, which previous error correction value has been calculated for a previously received echo with the same steps as for the currently received echo.
A capacitive touchscreen, comprising: a touch control panel and a drive chip connected with the touch control panel, wherein, the touch control panel comprises a substrate layer, a thin-film conductor layer and a protective layer covering the thin-film conductor layer; the thin-film conductor layer comprises a plurality of thin-film conductors, and the plurality of thin-film conductors are arranged on the substrate layer in a horizontal/vertical direction by taking a horizontal/vertical resolution of the touchscreen as a reference; the drive chip comprises a transmission unit and a receiving unit, wherein, the transmission unit is arranged to: generate a high-frequency excitation signal and load the high-frequency excitation signal onto each thin-film conductor; and the receiving unit is arranged to: receive a frequency signal one by one, in a wireless receiving manner, which is output after the high-frequency excitation signal passes through each thin-film conductor, and determine a touch position according to a change of the frequency signal before and after the touch, characterized in that, the receiving unit is arranged to determine the touch position according to the change of the frequency signal before and after the touch by the following manner: for each thin-film conductor, comparing a received frequency signal with a reference frequency without a touch, determining that there is a touch operation when the received frequency signal and the reference frequency without a touch are inconsistent, and determining the touch position on the thin-film conductor according to a difference between the received frequency signal and the reference frequency without a touch.
A shake correction control device (15, 17) comprising: circuitry (17, 18) to control an ON timing and OFF timing of one or more horizontal synchronizing signals of an image capture element, and an ON timing and OFF timing of one or more drive signals used for correcting a shake of the image capture element; shift at least one of the ON timing and OFF timing of the one or more drive signals used for correcting the shake of the image capture element so as to be out of a period of time during which analog/digital (A/D) conversion processing is performed; perform analog/digital (A/D) conversion processing on pixel signals for the horizontal lines of the image capture element one by one in a still image shooting mode; characterized by the circuitry being configured to perform analog/digital (A/D) conversion processing collectively on pixel signals for a plurality of horizontal lines of the image capture element in a live view mode; adjust the at least one of the ON timing and OFF timing of the one or more drive signals used for correcting the shake of the image capture element with respect to the one or more horizontal synchronizing signals based on the number of horizontal lines of the pixel signals collectively subjected to the A/D conversion processing in the still image shooting mode or the live view mode. circuitry (17, 18) to control an ON timing and OFF timing of one or more horizontal synchronizing signals of an image capture element, and an ON timing and OFF timing of one or more drive signals used for correcting a shake of the image capture element; shift at least one of the ON timing and OFF timing of the one or more drive signals used for correcting the shake of the image capture element so as to be out of a period of time during which analog/digital (A/D) conversion processing is performed; perform analog/digital (A/D) conversion processing on pixel signals for the horizontal lines of the image capture element one by one in a still image shooting mode; characterized by the circuitry being configured to perform analog/digital (A/D) conversion processing collectively on pixel signals for a plurality of horizontal lines of the image capture element in a live view mode; adjust the at least one of the ON timing and OFF timing of the one or more drive signals used for correcting the shake of the image capture element with respect to the one or more horizontal synchronizing signals based on the number of horizontal lines of the pixel signals collectively subjected to the A/D conversion processing in the still image shooting mode or the live view mode.
A method for producing a quartz glass crucible for pulling a single crystal silicon from a silicon melt held therein, comprising the steps of: producing a quartz glass crucible having an outer layer comprising an opaque quartz glass containing bubbles therein and an inner layer comprising a transparent quartz glass containing substantially no bubbles; roughening a region of an inner surface of the produced quartz glass crucible, the region being in contact with the silicon melt when holding the silicon melt; wherein the roughening forms the roughened region having an arithmetic mean roughness of 0.1 μm or more and 3.0 μm or less; and heating the quartz glass crucible having the roughened inner surface to crystallize a surface of the roughened region before being in contact with a silicon melt. producing a quartz glass crucible having an outer layer comprising an opaque quartz glass containing bubbles therein and an inner layer comprising a transparent quartz glass containing substantially no bubbles; roughening a region of an inner surface of the produced quartz glass crucible, the region being in contact with the silicon melt when holding the silicon melt; wherein the roughening forms the roughened region having an arithmetic mean roughness of 0.1 μm or more and 3.0 μm or less; and heating the quartz glass crucible having the roughened inner surface to crystallize a surface of the roughened region before being in contact with a silicon melt.
Process for preparing a reactive hotmelt formulation, the process comprising the step: reacting a NCO-terminated prepolymer with a mixture of: (a) a monofunctional compound having a molecular weight of less than 400g/mol and having one functional group, selected from primary, secondary or tertiary hydroxyl, primary, secondary or tertiary amine, primary, secondary or tertiary thiol, or carboxylic acid; and (b) a multifunctional compound having a molecular weight of less than 400g/mol and having at least two functional groups, wherein each functional group is independently selected from primary, secondary or tertiary hydroxyl, primary or secondary amine, primary, secondary or tertiary thiol, or carboxylic acid; wherein the mixture of monofunctional compound and multifunctional compound is present in an amount of 0.1 to 10% by weight, based on the total weight of the composition, and wherein the weight ratio M/D of monofunctional compound to multifunctional compound is in the range of 0.5 to 10. (a) a monofunctional compound having a molecular weight of less than 400g/mol and having one functional group, selected from primary, secondary or tertiary hydroxyl, primary, secondary or tertiary amine, primary, secondary or tertiary thiol, or carboxylic acid; and (b) a multifunctional compound having a molecular weight of less than 400g/mol and having at least two functional groups, wherein each functional group is independently selected from primary, secondary or tertiary hydroxyl, primary or secondary amine, primary, secondary or tertiary thiol, or carboxylic acid;
A replacement heart valve comprising: an expandable frame having an engagement system configured to engage a mitral valve annulus at an engagement zone along the length of the frame, the frame comprising an upstream portion, a downstream portion, and a transition portion between the upstream and downstream portions (38, 42), a diameter of the downstream portion being greater than a diameter of the upstream portion, the expandable frame including a set of upstream anchors having anchor tips and a set of downstream anchors having anchor tips, the upstream and downstream anchors (22, 24) being configured to grasp opposite sides of the mitral valve annulus, wherein the engagement zone is defined between the anchor tips (26, 28) of the upstream and downstream anchors (22, 24); and a valve body mounted onto the expandable frame, the valve body comprising a plurality of valve leaflets configured to move between an open condition and a closed condition; wherein an upstream end of each leaflet is positioned upstream of the frame engagement zone. an expandable frame having an engagement system configured to engage a mitral valve annulus at an engagement zone along the length of the frame, the frame comprising an upstream portion, a downstream portion, and a transition portion between the upstream and downstream portions (38, 42), a diameter of the downstream portion being greater than a diameter of the upstream portion, the expandable frame including a set of upstream anchors having anchor tips and a set of downstream anchors having anchor tips, the upstream and downstream anchors (22, 24) being configured to grasp opposite sides of the mitral valve annulus, wherein the engagement zone is defined between the anchor tips (26, 28) of the upstream and downstream anchors (22, 24); and a valve body mounted onto the expandable frame, the valve body comprising a plurality of valve leaflets configured to move between an open condition and a closed condition; wherein an upstream end of each leaflet is positioned upstream of the frame engagement zone.
A vehicular disc brake, comprising: - a caliper bracket mounted to a vehicle body fixedly, - a caliper body attached to the caliper bracket, and - friction pads disposed on both sides of a disc rotor, wherein: - each of the friction pads has a lining and a back plate, - an ear piece formed on each of the friction pads is slidably supported by a pad guide groove extending in a disc shaft direction formed in the caliper bracket or the caliper body, - the caliper body has an action part with a plurality of cylinder holes (6f, 6g) into which a plurality of pistons (10, 11) is inserted and a bridge part extending across an outer periphery of the disc rotor, - thinned parts (6n, 6p) are formed in positions corresponding to the pistons (10, 11) in a disc-radially inner wall of the bridge part and a volume of one of the thinned parts (6n, 6p) on a disc turn-in side in forward movement of a vehicle is different from a volume of another of the thinned parts (6n, 6p) on a disc turn-out side according to the reaction force applied to the caliper body, and - one of the thinned parts that is disposed closest to the disc turn-out side has a smaller volume than the other thinned part. - a caliper bracket mounted to a vehicle body fixedly, - a caliper body attached to the caliper bracket, and - friction pads disposed on both sides of a disc rotor, - each of the friction pads has a lining and a back plate, - an ear piece formed on each of the friction pads is slidably supported by a pad guide groove extending in a disc shaft direction formed in the caliper bracket or the caliper body, - the caliper body has an action part with a plurality of cylinder holes (6f, 6g) into which a plurality of pistons (10, 11) is inserted and a bridge part extending across an outer periphery of the disc rotor, - thinned parts (6n, 6p) are formed in positions corresponding to the pistons (10, 11) in a disc-radially inner wall of the bridge part and a volume of one of the thinned parts (6n, 6p) on a disc turn-in side in forward movement of a vehicle is different from a volume of another of the thinned parts (6n, 6p) on a disc turn-out side according to the reaction force applied to the caliper body, and - one of the thinned parts that is disposed closest to the disc turn-out side has a smaller volume than the other thinned part.
A method of encoding an information sequence at a transmitting device, the method comprising: generating the information sequence for channel encoding based on a polar code; and performing, by an encoder, channel encoding for the information sequence based on the polar code to produce an encoded information sequence, wherein the information sequence includes at least a first data block, a first parity block, a second data block, and a second parity block, wherein the first parity block is subsequent to the first data block in the information sequence, the second data block is subsequent to the first parity block, and the second parity block is subsequent to the second data block, and characterised in that the second parity block is generated based on preceding data blocks only that include the first and second data blocks, and not based on any following data block. generating the information sequence for channel encoding based on a polar code; and performing, by an encoder, channel encoding for the information sequence based on the polar code to produce an encoded information sequence, wherein the information sequence includes at least a first data block, a first parity block, a second data block, and a second parity block, wherein the first parity block is subsequent to the first data block in the information sequence, the second data block is subsequent to the first parity block, and the second parity block is subsequent to the second data block, and characterised in that the second parity block is generated based on preceding data blocks only that include the first and second data blocks, and not based on any following data block.