mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: storing a base resource identifier in memory of a tag; storing one or more privacy encryption keys in the memory of the tag; storing a unique tag identifier in the memory of the tag, wherein the unique tag identifier uniquely identifies the tag; storing a privacy key index in the memory of the tag, the privacy key index identifying a particular privacy encryption key from the one or more privacy encryption keys; receiving, at the tag, a read request from a reading device; generating a response to the read request that includes a combination of the base resource identifier as well as a privacy identifier, wherein the privacy identifier is determined with the particular privacy encryption key identified by the privacy key index, the unique tag identifier, and the privacy key index; and transmitting the response to the reading device; wherein the tag and the reading device communicate utilizing proximity-based communication protocols that rely upon the devices being within a particular range of one another. storing a base resource identifier in memory of a tag; storing one or more privacy encryption keys in the memory of the tag; storing a unique tag identifier in the memory of the tag, wherein the unique tag identifier uniquely identifies the tag; storing a privacy key index in the memory of the tag, the privacy key index identifying a particular privacy encryption key from the one or more privacy encryption keys; receiving, at the tag, a read request from a reading device; generating a response to the read request that includes a combination of the base resource identifier as well as a privacy identifier, wherein the privacy identifier is determined with the particular privacy encryption key identified by the privacy key index, the unique tag identifier, and the privacy key index; and transmitting the response to the reading device; wherein the tag and the reading device communicate utilizing proximity-based communication protocols that rely upon the devices being within a particular range of one another.
Process for treating a gaseous effluent obtained from a pyrolytic decomposition of a polymer or of a polymer blend, for recovering one or more monomers contained in said gaseous effluent, said process being characterized in that it comprises the following steps: - a condensation step which consists in injecting the gaseous effluent into a condensation chamber maintained at a first pressure p 1 between 0.1 and 5 bar and in placing it in contact with an absorbent liquid, the temperature of said absorbent liquid being at least 50°C and not more than 450°C below the temperature of the gaseous effluent, so that said monomer(s) condense(s) in the absorbent liquid by heat exchange, - a step of partial vaporization of the condensate obtained on conclusion of the condensation step, by expansion of the condensate in a chamber maintained at a second pressure p 2 below the first pressure p 1 , said second pressure p 2 being of between 0.001 and 0.8 bar, the pressure difference as an absolute value between the first condensation chamber and the second chamber being greater than or equal to 0.5 bar, - a reinjection step which consists in at least partly redirecting a first liquid or vapour fraction, obtained on conclusion of the partial vaporization step , to the condensation chamber to once again absorb the monomer(s) contained in the gaseous effluent, where appropriate the vapour fraction being recondensed before it is introduced into the condensation chamber, and - a recovery step including purification of a second liquid or vapour fraction, obtained on conclusion of the partial vaporization step and charged with monomer(s), said purification being chosen from filtration, decantation and centrifugation. - a condensation step which consists in injecting the gaseous effluent into a condensation chamber maintained at a first pressure p 1 between 0.1 and 5 bar and in placing it in contact with an absorbent liquid, the temperature of said absorbent liquid being at least 50°C and not more than 450°C below the temperature of the gaseous effluent, so that said monomer(s) condense(s) in the absorbent liquid by heat exchange, - a step of partial vaporization of the condensate obtained on conclusion of the condensation step, by expansion of the condensate in a chamber maintained at a second pressure p 2 below the first pressure p 1 , said second pressure p 2 being of between 0.001 and 0.8 bar, the pressure difference as an absolute value between the first condensation chamber and the second chamber being greater than or equal to 0.5 bar, - a reinjection step which consists in at least partly redirecting a first liquid or vapour fraction, obtained on conclusion of the partial vaporization step , to the condensation chamber to once again absorb the monomer(s) contained in the gaseous effluent, where appropriate the vapour fraction being recondensed before it is introduced into the condensation chamber, and - a recovery step including purification of a second liquid or vapour fraction, obtained on conclusion of the partial vaporization step and charged with monomer(s), said purification being chosen from filtration, decantation and centrifugation.
A coated substrate comprising : • a substrate comprising two main faces separated by edges, • a soft coating comprising one or more layers deposited by physical vapor deposition provided on at least a part of at least one main face of the substrate, • a protective coating provided on at least a part of said face above the soft coating, • optionally at least one intermediate coating provided on at least a part of said face between the soft coating and the protective coating, wherein, the protective coating is a radiation cured coating obtained by curing a radiation curable composition comprising one or more compound bearing one or more cyclic ether CEC, and with the proviso that when the optional at least one intermediate coating is a sol-gel coating, the sol-gel coating comprises from 0 to 1.59 wt% of cerium on the total weight of metal, metalloid and lanthanide elements of the sol-gel coating. • a substrate comprising two main faces separated by edges, • a soft coating comprising one or more layers deposited by physical vapor deposition provided on at least a part of at least one main face of the substrate, • a protective coating provided on at least a part of said face above the soft coating, • optionally at least one intermediate coating provided on at least a part of said face between the soft coating and the protective coating, the protective coating is a radiation cured coating obtained by curing a radiation curable composition comprising one or more compound bearing one or more cyclic ether CEC, and with the proviso that when the optional at least one intermediate coating is a sol-gel coating, the sol-gel coating comprises from 0 to 1.59 wt% of cerium on the total weight of metal, metalloid and lanthanide elements of the sol-gel coating.
A microwave heating device comprising: a heating chamber configured to accommodate a heating target object; a microwave generator configured to generate a microwave; a waveguide mounted with the microwave generator , the waveguide including one end connected to the heating chamber ; and a coaxial connector including a center conductor , an insulator , and an external conductor , wherein the microwave generator includes a substrate mounted with an oscillator system, the center conductor includes one end connected to the substrate of the microwave generator and another end projecting into the waveguide , the one end of the center conductor being closer to the microwave generator , the another end being closer to the waveguide , and the coaxial connector includes an air gap between the center conductor and the insulator . a heating chamber configured to accommodate a heating target object; a microwave generator configured to generate a microwave; a waveguide mounted with the microwave generator , the waveguide including one end connected to the heating chamber ; and a coaxial connector including a center conductor , an insulator , and an external conductor , wherein the microwave generator includes a substrate mounted with an oscillator system, the center conductor includes one end connected to the substrate of the microwave generator and another end projecting into the waveguide , the one end of the center conductor being closer to the microwave generator , the another end being closer to the waveguide , and the coaxial connector includes an air gap between the center conductor and the insulator .
A reamer having a reamer cup and an elongated reamer shaft attached to said reamer cup wherein the reamer cup has a spherical calotte shaped body with a flattened distal section and a cylindrical proximal section , wherein the distal part of the reamer has an array of cutting holes (140-145 and 150-155) placed in at least two spiral rows such that the cutting holes (145-144 and 155-154) placed on a radius closest around the shaft axis starting from a central ring when in rotation run radially between a radial path of the holes on the opposite side of each other and said holes (140-145 and 150-155) vary in their sharpness, wherein the cutting holes (145-144 and 155-154) closest to the reamer shaft axis have the highest sharpness and the most exterior cutting holes (140-143 and 150-153) have the lowest sharpness.
A method for temperature compensation during operation of a burst-mode laser that is thermally coupled to a heater , the method comprising: receiving a burst enable signal indicating the start of a burst period; emitting an optical signal with at least one wavelength during the burst period; and substantially maintaining a temperature of the burst-mode laser throughout the emission of the optical signal to reduce wavelength shift of the optical signal, wherein substantially maintaining the temperature comprises applying, using the heater , heat to the burst-mode laser based on the burst enable signal, wherein the method further comprises: supplying an electric current to the heater for generating at least the heat applied to the burst-mode laser , wherein the electric current reaches a maximal level no later than the start of the emission of the optical signal and then decreases from the maximal level thereafter, wherein the heat is applied to the burst-mode laser prior to a start of the burst period, and wherein the heat is not applied to the burst-mode laser at least during a latter portion of the burst period, wherein the electric current reaches the maximal level at least about 4 microseconds before the start of the burst period to cause the temperature of the burst-mode laser to rise before the start of the burst period, and wherein the electric current decreases to an intermediate level for a first portion of the burst period until the electric current is turned off during the latter portion of the burst period. receiving a burst enable signal indicating the start of a burst period; emitting an optical signal with at least one wavelength during the burst period; and substantially maintaining a temperature of the burst-mode laser throughout the emission of the optical signal to reduce wavelength shift of the optical signal, wherein substantially maintaining the temperature comprises applying, using the heater , heat to the burst-mode laser based on the burst enable signal, wherein the heat is applied to the burst-mode laser prior to a start of the burst period, and wherein the heat is not applied to the burst-mode laser at least during a latter portion of the burst period, wherein the electric current reaches the maximal level at least about 4 microseconds before the start of the burst period to cause the temperature of the burst-mode laser to rise before the start of the burst period, and wherein the electric current decreases to an intermediate level for a first portion of the burst period until the electric current is turned off during the latter portion of the burst period.
An injection moulding machine for manufacturing fibre-reinforced plastic parts, with a closing unit and an injection unit , wherein the injection unit has a cylinder and a screw which is rotatable in the cylinder and is displaceable in longitudinal direction of the cylinder , wherein in the cylinder a first opening is provided as filling opening for feeding in a plastic material which is to be melted, wherein downstream of the first opening in the cylinder a second opening is provided as filling opening for the feeding in of a fibre material, and wherein the screw has a backflow stop , characterized in that downstream of the backflow stop and/or upstream of the backflow stop a mixing part is provided which is connected with the screw in a rotationally fixed manner and corotating therewith, that the mixing part has cylindrical main body , the outer diameter (D M ) of which is smaller than the inner diameter (D Z ) of the cylinder , wherein an annular gap is formed between the main body and the cylinder inner wall , that on the surface of the main body facing the cylinder inner wall several drops as drop-shaped mixing elements are arranged distributed over the circumference of the main body , wherein in top view onto a drop a drop longitudinal axis (L T ) is present, which runs from the pointed end of the drop to the substantially opposite, rounded end of the drop , and that the height (H) of the drops over the main body is selected to be smaller than the width (B) of the annular gap between the main body and the cylinder inner wall .
Electron beam (EB) curable composition comprising poly(alkylene oxide) containing substances, which are essentially free of ethylenically unsaturated groups, according to the following expression; R 1 [O-(C n H 2n O) x R 2 ] m wherein R 1 and R 2 may separately be hydrogen or any organic residue; m can be any number between 1 and 8; n can be any number between 1 and 6; and x can be any number equal to, or greater than 2, wherein the amount of poly(alkylene oxide) containing substances is from 1.0% to 10.0% by weight of the composition, and wherein the composition further comprises any blend of ethylenically unsaturated monomers. wherein R 1 and R 2 may separately be hydrogen or any organic residue; m can be any number between 1 and 8; n can be any number between 1 and 6; and x can be any number equal to, or greater than 2, wherein the amount of poly(alkylene oxide) containing substances is from 1.0% to 10.0% by weight of the composition, and wherein the composition further comprises any blend of ethylenically unsaturated monomers.
An electric range, comprising: a case ; a cover plate coupled to an upper end of the case ; one or more base plates disposed below the cover plate ; a plurality of working coils disposed above the one or more base plates and below the cover plate , and configured to heat an object being placed on the cover plate for being heated; one or more driving circuits disposed below the one or more base plates and configured to drive the working coils ; and a filter circuit disposed below the one or more base plates and configured to reduce electromagnetic compatibility, EMC, -related noise generated by the working coils , characterised in that the working coils include a high-power working coil and at least one first low-power working coil, and the filter circuit is disposed below the at least one first low-power working coil. a case ; a cover plate coupled to an upper end of the case ; one or more base plates disposed below the cover plate ; a plurality of working coils disposed above the one or more base plates and below the cover plate , and configured to heat an object being placed on the cover plate for being heated; one or more driving circuits disposed below the one or more base plates and configured to drive the working coils ; and a filter circuit disposed below the one or more base plates and configured to reduce electromagnetic compatibility, EMC, -related noise generated by the working coils , characterised in that the working coils include a high-power working coil and at least one first low-power working coil, and the filter circuit is disposed below the at least one first low-power working coil.
A papermaking device for use in a papermaking machine, comprising at least one resin layer comprising a polyurethane resin, wherein: the polyurethane resin is obtainable by reacting a urethane prepolymer having an isocyanate group with a curing agent having an active hydrogen group, wherein: the urethane prepolymer is obtainable by reacting a polyisocyanate compound comprising 2,4-tolylene-diisocyanate and/or 2,6-tolylene-diisocyanate with a polyol compound comprising one or more polyether polycarbonate diol(s).
A device for changing the upper tool (10.1) of a punching and/or embossing station of a flatbed sheet punching and/or embossing machine , wherein the device for changing the upper tool can be positioned immediately adjacent to a punching and/or embossing station of the flatbed sheet punching and/or embossing machine and has a rotatable tool holder for receiving and providing the upper tool (10.1) in a substantially horizontal provision plane (r), wherein the device for changing the upper tool comprises a braking and locking unit , a transmission system and an operating button , wherein the braking and locking unit controls or restricts the rotational mobility of the tool holder , wherein the transmission system is disposed between the operating knob and the braking and locking unit for transmitting a force from the operating knob to the braking and locking unit , and wherein the operation of the operating knob cancels the effect of the braking and locking unit , characterized in that the transmission system is designed electrically.
Modular lighting installation, comprising at least - a conduction member , at least - a control gear, configured to be connected with the conduction member , for generating supply current for the light source from the mains supply, at least - a lighting member configured to be connected with the conduction member and having at least one light source, - wherein the conduction member is at least configured to transmit electric power from an external source to the at least one control gear and from the control gear to at least one lighting member and/or to transmit data and control signals and having at least - one first interface, wherein the first interface is configured as integral interface for guiding electrical energy from an external source into and through the first interface and for separately guiding the supply current supplied by the control gear through and out of the first interface for supplying the lighting members, in order to realize mains supply and supply current delivery of the control gear, - wherein the conduction member comprises at least one second interface , configured for supplying current to the lighting member, and - wherein the conduction member is configured to realize delivery of data-control signals for the light source through the second interface . - a conduction member , at least - a control gear, configured to be connected with the conduction member , for generating supply current for the light source from the mains supply, at least - a lighting member configured to be connected with the conduction member and having at least one light source, - wherein the conduction member is at least configured to transmit electric power from an external source to the at least one control gear and from the control gear to at least one lighting member and/or to transmit data and control signals and having at least - one first interface, wherein the first interface is configured as integral interface for guiding electrical energy from an external source into and through the first interface and for separately guiding the supply current supplied by the control gear through and out of the first interface for supplying the lighting members, in order to realize mains supply and supply current delivery of the control gear, - wherein the conduction member comprises at least one second interface , configured for supplying current to the lighting member, and - wherein the conduction member is configured to realize delivery of data-control signals for the light source through the second interface .
A coated cutting tool comprising a substrate and a coating, wherein the coating comprises at least one layer of α-Al 2 O 3 with a thickness of 1-20 μm deposited by chemical vapour deposition (CVD), wherein said α-Al 2 O 3 layer exhibits an X-ray diffraction pattern, wherein a texture coefficient TC (h k l) is defined according to Harris formula TC h k l = I hkl I 0 hkl 1 n ∑ i = 0 n I hkl I 0 hkl − 1 wherein the (h k l) reflections used are (10 4), , (1 1 3), (0 2 4), , (2 1 4), and (0 0 12), I(h k l) = measured intensity of the (h k l) reflection, l 0 (h k l) = standard intensity according to ICDD's PDF-card No. 00-10-0173, n = 8, characterized in that 1<TC(0 2 4)<4 and 3<TC(0 0 12)<6. I(h k l) = measured intensity of the (h k l) reflection, l 0 (h k l) = standard intensity according to ICDD's PDF-card No. 00-10-0173, n = 8, characterized in that 1<TC(0 2 4)<4 and 3<TC(0 0 12)<6.
An information processing apparatus comprising: first acquisition processing means for acquiring identification information from a communication terminal ; second acquisition processing means for acquiring an attribute information of each of a plurality of communication terminals ; specifying processing means for searching the attribute information acquired by the second acquisition processing means and for specifying a communication terminal having the identification information acquired by the first acquisition processing means; and synchronization establishment processing means for establishing synchronization for wireless communication performed by using the communication terminal specified by the specifying processing means; wherein the first acquisition processing means is configured to acquire the identification information when the communication terminal comes within a first kind of wireless communication range of the information processing apparatus; wherein the first acquisition processing means is configured to acquire the identification information from a communication terminal via an electromagnetic wave, and characterised by : the synchronisation establishment processing means is configured to be activated to establish the synchronisation for wireless communication in response to the first acquisition processing means acquiring the identification information. first acquisition processing means for acquiring identification information from a communication terminal ; second acquisition processing means for acquiring an attribute information of each of a plurality of communication terminals ; specifying processing means for searching the attribute information acquired by the second acquisition processing means and for specifying a communication terminal having the identification information acquired by the first acquisition processing means; and synchronization establishment processing means for establishing synchronization for wireless communication performed by using the communication terminal specified by the specifying processing means; wherein the first acquisition processing means is configured to acquire the identification information when the communication terminal comes within a first kind of wireless communication range of the information processing apparatus; wherein the first acquisition processing means is configured to acquire the identification information from a communication terminal via an electromagnetic wave, and characterised by : the synchronisation establishment processing means is configured to be activated to establish the synchronisation for wireless communication in response to the first acquisition processing means acquiring the identification information.
An infection-inhibiting composition for application to the surface of an implantable medical device, comprising an antimicrobial agent in a waxy matrix comprising phosphatidylcholine, wherein the matrix is operable to deposit the anti-infective when rubbed on a surface of the device.