mhurhangee/ep-ind-claims huggingface dataset:
A LED-light comprising: • a light frame; • a light base which is connected with a first end of the light frame, wherein the light base is of substantially cylindrical design and has a central axis, wherein the light base is provided with Edison thread extending concentrically around the central axis, or wherein the light base is provided with a bayonet fastener; • a number of LEDs mounted in or on the light frame; • at least one photovoltaic cell which is mounted in or on the light frame; • a battery which is connected with the light frame or the light base; • an electric circuit which is connected with the light frame or the light base and to which the number of LEDs, the battery and the at least one photovoltaic cell are connected. wherein the light frame has a second end which is remote from the light base, wherein the LED-light further comprises a light-transmitting light top which is connected with the second end of the light frame, wherein the LED-light is provided with a substantially plate-shaped support element which is included in the light frame, wherein the plate-shaped support element has two opposite main surfaces, a first of which faces the light base and a second of which faces the light top, wherein the at least one photovoltaic cell is mounted on the second side, facing the light top, of the plate-shaped support element, such that outside light falls via the light-transmitting light top onto the at least one photovoltaic cell, characterized in that the light frame at a first end thereof is detachably connected with the light base, wherein the light frame is a single injection-molded piece which is further provided with a battery chamber, wherein the battery chamber at the first end of the light frame is provided with a battery chamber opening via which a battery is insertable into the battery chamber, wherein the battery chamber opening is closable with the light base detachably connected with the light frame, wherein the light top has a substantially spherical segment-shaped configuration, wherein the substantially plate-shaped support element is provided with at least one opening, wherein the electric circuit is mounted on the plate-shaped support element on the first side of the support element, wherein the LEDs mounted on the electric circuit extend through said associated at least one opening in the support element, such that the light emitted in use by the LEDs falls directly on the inner side of the light top. • a light frame; • a light base which is connected with a first end of the light frame, wherein the light base is of substantially cylindrical design and has a central axis, wherein the light base is provided with Edison thread extending concentrically around the central axis, or wherein the light base is provided with a bayonet fastener; • a number of LEDs mounted in or on the light frame; • at least one photovoltaic cell which is mounted in or on the light frame; • a battery which is connected with the light frame or the light base; • an electric circuit which is connected with the light frame or the light base and to which the number of LEDs, the battery and the at least one photovoltaic cell are connected.
A method in a processor with a network-on-chip system including a first router and a second router, the method comprising: receiving, at the first router, a first packet and a first direction associated with the first packet; forwarding the first packet to an output port of a plurality of output ports of the first router based on the first direction associated with the first packet; determining a second direction associated with the first packet, the second direction based at least on an address of the first packet; and characterised in that the method further comprises: forwarding the first packet and the second direction through the output port of the first router to a second router, wherein the first direction indicates the output port of the first router and the second direction indicates an output port of a plurality of output ports of the second router. receiving, at the first router, a first packet and a first direction associated with the first packet; forwarding the first packet to an output port of a plurality of output ports of the first router based on the first direction associated with the first packet; determining a second direction associated with the first packet, the second direction based at least on an address of the first packet; and characterised in that the method further comprises: forwarding the first packet and the second direction through the output port of the first router to a second router, wherein the first direction indicates the output port of the first router and the second direction indicates an output port of a plurality of output ports of the second router.
A method of wireless communication in a wireless network, comprising: receiving (1810;1910) a timing variable and a timing offset allowance from a network at a device, the timing variable being received while the device is in a connected mode; and using the received timing variable and the timing offset allowance for device-to-device, D2D, discovery message authentication by comparing (1815;1915) the received timing variable with a local timing variable to determine whether a difference between the received timing variable and the local timing variable is within the timing offset allowance. receiving (1810;1910) a timing variable and a timing offset allowance from a network at a device, the timing variable being received while the device is in a connected mode; and using the received timing variable and the timing offset allowance for device-to-device, D2D, discovery message authentication by comparing (1815;1915) the received timing variable with a local timing variable to determine whether a difference between the received timing variable and the local timing variable is within the timing offset allowance.
A coated cutting tool comprising a substrate and a coating layer formed on a surface of the substrate, the coating layer including at least one α-type aluminum oxide layer, wherein, in the α-type aluminum oxide layer, a texture coefficient TC (2,1,10) of a (2,1,10) plane represented by formula below is 1.4 or more: TC 2,1,10 = I 2,1,10 I 0 2,1,10 1 8 ∑ I h k l I 0 h k l − 1 (In formula, I (h,k,l) denotes a peak intensity for an (h,k,l) plane in X-ray diffraction of the α-type aluminum oxide layer, l 0 (h,k,l) denotes a standard diffraction intensity for an (h,k,l) plane which is indicated on a JCPDS Card No. 10-0173 for α-type aluminum oxide, and (h,k,l) refers to eight crystal planes of (0,1,2), (1,0,4), (1,1,0), (1,1,3), (0,2,4), (1,1,6), (2,1,4) and (2,1,10)), wherein an average thickness of the α-type aluminum oxide layer is from 1.0 μm or more to 15.0 μm or less, wherein the coating layer comprises a TiCN layer between the substrate and the α-type aluminum oxide layer, and wherein the coating layer comprises, between the TiCN layer and the α-type aluminum oxide layer, an intermediate layer comprised of a compound of at least one kind selected from the group consisting of a Ti carbonate, a Ti oxynitride and a Ti carboxynitride. (In formula, I (h,k,l) denotes a peak intensity for an (h,k,l) plane in X-ray diffraction of the α-type aluminum oxide layer, l 0 (h,k,l) denotes a standard diffraction intensity for an (h,k,l) plane which is indicated on a JCPDS Card No. 10-0173 for α-type aluminum oxide, and (h,k,l) refers to eight crystal planes of (0,1,2), (1,0,4), (1,1,0), (1,1,3), (0,2,4), (1,1,6), (2,1,4) and (2,1,10)), wherein an average thickness of the α-type aluminum oxide layer is from 1.0 μm or more to 15.0 μm or less, wherein the coating layer comprises a TiCN layer between the substrate and the α-type aluminum oxide layer, and wherein the coating layer comprises, between the TiCN layer and the α-type aluminum oxide layer, an intermediate layer comprised of a compound of at least one kind selected from the group consisting of a Ti carbonate, a Ti oxynitride and a Ti carboxynitride.
An adhesive composition comprising: (a) at least one isocyanate component, and (b) at least one polyol component, wherein the polyol component comprises (bi) at least one first polyol compound, (bii) 0.1 to 3 wt% of, based on the weight of the adhesive composition, at least one second polyol compound having a functionality of greater than 2 and an equivalent weight of less than 200, which is glycerin; and (biii) at least one chain extender, wherein the chain extender comprises an aliphatic diol with an equivalent weight of less than 200. (a) at least one isocyanate component, and (b) at least one polyol component, wherein the polyol component comprises (bi) at least one first polyol compound, (bii) 0.1 to 3 wt% of, based on the weight of the adhesive composition, at least one second polyol compound having a functionality of greater than 2 and an equivalent weight of less than 200, which is glycerin; and (biii) at least one chain extender, wherein the chain extender comprises an aliphatic diol with an equivalent weight of less than 200.
Device for the analysis of sulfates in a liquid, said device comprising the following elements: a) a sealed analytical circuit comprising an injection loop of defined volume connected to two, three or four mixing loops, preferably two mixing loops, which follow one another, said mixing loops being corrugated or spirally wound, preferably spirally wound, and a turbidimetric analysis means, the injection loop, the mixing loops and the analysis means being able to be successively and continuously flowed through by the liquid, the injection loop and the mixing loop being separated by a valve; b) means for injecting said liquid into said injection loop, said injection means comprising a first peristaltic pump, a system of valves (VF, VG) placed between said first pump and said injection loop, and means for taking said liquid from a source c) means for injecting, into said injection loop, a solution for detecting sulfates in said liquid by turbidimetry; said injection means comprising a second peristaltic pump for injecting said solution for detecting sulfates and a valve placed between said second pump and said injection loop; and d) means for injecting a rinse solution for said analytical circuit, said injecting means comprising a third peristaltic pump for injecting said rinse solution and a system of valves (VF, VG) located between said third pump and said injection loop. a) a sealed analytical circuit comprising an injection loop of defined volume connected to two, three or four mixing loops, preferably two mixing loops, which follow one another, said mixing loops being corrugated or spirally wound, preferably spirally wound, and a turbidimetric analysis means, the injection loop, the mixing loops and the analysis means being able to be successively and continuously flowed through by the liquid, the injection loop and the mixing loop being separated by a valve; b) means for injecting said liquid into said injection loop, said injection means comprising a first peristaltic pump, a system of valves (VF, VG) placed between said first pump and said injection loop, and means for taking said liquid from a source c) means for injecting, into said injection loop, a solution for detecting sulfates in said liquid by turbidimetry; said injection means comprising a second peristaltic pump for injecting said solution for detecting sulfates and a valve placed between said second pump and said injection loop; and d) means for injecting a rinse solution for said analytical circuit, said injecting means comprising a third peristaltic pump for injecting said rinse solution and a system of valves (VF, VG) located between said third pump and said injection loop.
An apparatus comprising a magnetic stack disposed between first and second side shields, each side shield comprising a polish stop layer tuned to provide a first predetermined polish rate, wherein: the magnetic stack and the first and second side shields each have a top surface along an air bearing surface of the apparatus, and the polish stop layer continuously extends along the ABS on at least part of the top surface of each of the first and second side shields, characterized in that the apparatus further comprises a layer on the polish stop layer and the top surface of the magnetic stack along the ABS, the layer being one of a top shield, an electrode layer and a non-magnetic spacer layer, and the first predetermined polish rate is approximately 0.2 nm/min. the magnetic stack and the first and second side shields each have a top surface along an air bearing surface of the apparatus, and the polish stop layer continuously extends along the ABS on at least part of the top surface of each of the first and second side shields, characterized in that the apparatus further comprises a layer on the polish stop layer and the top surface of the magnetic stack along the ABS, the layer being one of a top shield, an electrode layer and a non-magnetic spacer layer, and the first predetermined polish rate is approximately 0.2 nm/min.
A mixer circuit to mix a RF, Radio Frequency, signal with a LO, Local Oscillator, signal to generate an IF, Intermediate Frequency, signal, the mixer circuit having - a mixing branch comprising a transconductance stage having an RF input to receive the RF signal to transform into a current signal (Is), and a dummy branch connected in parallel of the mixing branch and comprising a transconductance stage having an input connected to a reference potential which is independent from the RF signal, to transform the reference potential into a current signal (I d), - chopping switches (Q C1 to Q C4) able to connect in series the transconductance stage of the mixing branch to a current input of a current switching core of the mixing branch and, in alternance, to a current input of a current switching core of the dummy branch under the control of a chopping signal, and able to connect in series the transconductance stage of the dummy branch to the current input of the current switching core of the dummy branch and, in alternance, to the current input of the current switching core of the mixing branch under the control of the chopping signal - said current switching core of the mixing branch being able to switch the current signal received at its current input, according to the LO signal and an LO signal which forms with the LO signal a differential signal, - said current switching core of the dummy branch being able to switch the current signal received at its current input according to LO and LO signals. - a mixing branch comprising a transconductance stage having an RF input to receive the RF signal to transform into a current signal (Is), and a dummy branch connected in parallel of the mixing branch and comprising a transconductance stage having an input connected to a reference potential which is independent from the RF signal, to transform the reference potential into a current signal (I d), - chopping switches (Q C1 to Q C4) able to connect in series the transconductance stage of the mixing branch to a current input of a current switching core of the mixing branch and, in alternance, to a current input of a current switching core of the dummy branch under the control of a chopping signal, and able to connect in series the transconductance stage of the dummy branch to the current input of the current switching core of the dummy branch and, in alternance, to the current input of the current switching core of the mixing branch under the control of the chopping signal - said current switching core of the mixing branch being able to switch the current signal received at its current input, according to the LO signal and an LO signal which forms with the LO signal a differential signal, - said current switching core of the dummy branch being able to switch the current signal received at its current input according to LO and LO signals.
A vehicle comprising: a plurality of network controllers (112, 114, 122, 200) comprising a first network controller and a second network controller (112, 114), wherein the first network controller comprises a first clock to produce a first oscillating signal and the second network controller comprises a second clock (136, 138) to produce a second oscillating signal; a wireless local area network, WLAN, over which at least the first network controller and the second network controller are to communicate, wherein a link between the first network controller and the second network controller through the WLAN is a synchronized link based on transition edges of the second oscillating signal being aligned in time with timing information from a field bus packet transmitted from the first network controller to the second network controller over a field bus. a plurality of network controllers (112, 114, 122, 200) comprising a first network controller and a second network controller (112, 114), wherein the first network controller comprises a first clock to produce a first oscillating signal and the second network controller comprises a second clock (136, 138) to produce a second oscillating signal; a wireless local area network, WLAN, over which at least the first network controller and the second network controller are to communicate, wherein a link between the first network controller and the second network controller through the WLAN is a synchronized link based on transition edges of the second oscillating signal being aligned in time with timing information from a field bus packet transmitted from the first network controller to the second network controller over a field bus.
Device for guiding an elongated metallic product, such as wire, between a product run-off installation and a consumer that draws off the product from said product run-off installation, having a frame for mounting a product release installation which is movable in relation to the consumer, wherein the device is configured in such a manner that the draw-off force that is exerted on a product bundle controls the revolutions of the product run-off installation, characterized in that the product release installation (3, 4, 5) by way of a rotary element (7, 8, 11) which is provided with a shaft on which a cam is fastened, the shape of the latter from a linear characteristic curve of the retention element generating a non-linear characteristic curve for a linearly movable slide of the product release installation (3, 4, 5), is coupled to a retention element which is preferably formed from one or a plurality of springs or hydraulic cylinders, said slide by means of a cable pull which is guided by way of the cam and by way of a disc mounted on the shaft being connected to the retention element.
Printing assembly, wherein the printing assembly has a least one transport path that is provided for the transport of a web-type printing substrate, the transport path defining at least one transport direction, and wherein the printing assembly has at least two suction boxes, and wherein the at least two suction boxes have respective inlet openings which point at least partially toward the transport path provided for the printing substrate, and wherein a suction direction of a respective suction box points from the at least one inlet openings toward the at least one outlet opening, and wherein a middle suction direction of the respective suction box has at least one component oriented in a direction pointing vertically upward, characterized in that the inlet openings of the at least two suction boxes together extend in a transverse direction over an inlet length that corresponds to at least 90% of the working width of the printing assembly, and in that the at least two suction boxes are arranged side by side in the transverse direction, and in that these at least two suction boxes can each be removed from the printing assembly individually and independently of others of these at least two suction boxes that are arranged next to the respective one of the at least two suction boxes.
A surgical stapling apparatus including a releasable surgical buttress (24, 124), the surgical stapling apparatus comprising: a cartridge assembly (32, 132) including a plurality of staples (50, 150) and a tissue contacting surface defining staple retaining slots; an anvil assembly (20, 120) including a tissue contacting surface defining staple pockets for forming staples (50, 150) expelled from the staple retaining slots of the cartridge assembly (32, 132); a surgical buttress (24, 124) disposed on at least one of the tissue contacting surfaces of the cartridge assembly (32, 132) and the anvil assembly (20, 120); and a low molecular weight bioabsorbable adhesive for releasably retaining the surgical buttress (24, 124) on the at least one of the tissue contacting surfaces of the cartridge assembly (32, 132) and the anvil assembly (20, 120), wherein the surgical buttress (24, 124) is porous and comprises a foam layer, the surgical buttress (24, 124) further comprising a further layer adhered to a surface of the foam layer, wherein the further layer of the surgical buttress (24, 124) is adhered to the at least one of the tissue contacting surfaces of the cartridge assembly (32, 132) and the anvil assembly (20, 120) by the low molecular weight adhesive, and the low molecular weight bioabsorbable adhesive having a low molecular weight of less than 3000 g/mol, characterised in that the further layer adhered to a surface of the foam layer is a non-woven fabric layer. a cartridge assembly (32, 132) including a plurality of staples (50, 150) and a tissue contacting surface defining staple retaining slots; an anvil assembly (20, 120) including a tissue contacting surface defining staple pockets for forming staples (50, 150) expelled from the staple retaining slots of the cartridge assembly (32, 132); a surgical buttress (24, 124) disposed on at least one of the tissue contacting surfaces of the cartridge assembly (32, 132) and the anvil assembly (20, 120); and a low molecular weight bioabsorbable adhesive for releasably retaining the surgical buttress (24, 124) on the at least one of the tissue contacting surfaces of the cartridge assembly (32, 132) and the anvil assembly (20, 120), wherein the surgical buttress (24, 124) is porous and comprises a foam layer, the surgical buttress (24, 124) further comprising a further layer adhered to a surface of the foam layer, wherein the further layer of the surgical buttress (24, 124) is adhered to the at least one of the tissue contacting surfaces of the cartridge assembly (32, 132) and the anvil assembly (20, 120) by the low molecular weight adhesive, and the low molecular weight bioabsorbable adhesive having a low molecular weight of less than 3000 g/mol, characterised in that the further layer adhered to a surface of the foam layer is a non-woven fabric layer.