mhurhangee/patent-ind-claim-en huggingface dataset:
An integrated circuit (IC) die, comprising: a first level of interconnect features with nanometer dimensions and comprising metallization, wherein the interconnect features are interconnect lines comprising a metal, and wherein at least some of the interconnect features are in direct contact with respective underlying interconnect features in a second level of the IC die below the first level of interconnect features ; a lithography alignment feature within the second level ; and a reveal window within which the metallization is absent, wherein; a perimeter of the reveal window has micrometer pixilation ; the reveal window is coplanar with the level of interconnect features ; and the perimeter of the reveal window surrounds the alignment feature . a first level of interconnect features with nanometer dimensions and comprising metallization, wherein the interconnect features are interconnect lines comprising a metal, and wherein at least some of the interconnect features are in direct contact with respective underlying interconnect features in a second level of the IC die below the first level of interconnect features ; a lithography alignment feature within the second level ; and a reveal window within which the metallization is absent, wherein; a perimeter of the reveal window has micrometer pixilation ; the reveal window is coplanar with the level of interconnect features ; and the perimeter of the reveal window surrounds the alignment feature . a perimeter of the reveal window has micrometer pixilation ; the reveal window is coplanar with the level of interconnect features ; and the perimeter of the reveal window surrounds the alignment feature .
A deployable antenna, comprising: a collector ; a support structure , comprising a shape memory composite having a remembered configuration, which is configured to deform along a length when a force is applied and is configured to return to the remembered configuration when the force is removed; and a reflector configured to direct radio frequency waves received at the reflector to the collector , wherein the deployable antenna comprises a stowed configuration in which the support structure is configured to be deformed in a non-structured fashion under the imposition of an outside force and a deployed configuration in which the support structure is configured to be in the remembered configuration, wherein the deployable antenna is retained in the stowed configuration having a reduced storage volume through application of an outside force. a collector ; a support structure , comprising a shape memory composite having a remembered configuration, which is configured to deform along a length when a force is applied and is configured to return to the remembered configuration when the force is removed; and a reflector configured to direct radio frequency waves received at the reflector to the collector , wherein the deployable antenna comprises a stowed configuration in which the support structure is configured to be deformed in a non-structured fashion under the imposition of an outside force and a deployed configuration in which the support structure is configured to be in the remembered configuration, wherein the deployable antenna is retained in the stowed configuration having a reduced storage volume through application of an outside force.
Cooling device of an electric motor, having a rotor cooling flange and a stator cooling flange , of which one is rotatable with respect to the other and at least one of the two cooling flanges is provided with cooling fins , which are arranged in a distributed manner over the circumference of the cooling flange and run in the radial direction, at least 50% of the said cooling fins of the heat-emitting cooling flange having a surface area which is larger than the surface area of the associated straight reference fin, which runs in the radial direction, at least one of the two cooling flanges emitting heat to the ambient air during operation of the electric motor, characterized in that the at least 50% of the cooling fins have a wave-like shape over their length, in that the phase position (ΔΦ) of the wave-like cooling fins of at least one of the two cooling flanges is different, in that precisely one other cooling fin of the same cooling flange is assigned to each cooling fin by pairing, which other cooling fin has approximately the same radial amplitude progression (A) and approximately the same radial wavelength progression (Λ) and differs in terms of its phase position (Δφ) by approximately π from that of the other cooling fin , in that the reference fin - the imaginary cooling-fin centre line of which lies exactly on a reference straight line (R) which intersects the cooling-fin centre line of the associated wave-like cooling fin at least three times - has the same axial and radial extent as the associated wave-like cooling fin and the same thickness progression, and in that the value after the maximum phase shift between two adjacent cooling fins for at least 80% of all possible directly adjacent cooling fins of the cooling flange is ΔΔφ (max.) = π/3.
A rotary compressor comprising: - a cylindrical compressor housing which is provided with an inlet unit of a refrigerant and a discharging unit of the refrigerant; - a compressing unit which is disposed inside the compressor housing and which includes a cylinder and a piston for compressing the refrigerant that is sucked in from the inlet unit ; - a rotation shaft which is provided with the piston of the compressing unit ; - a bearing unit which is fixed to an inner portion of the compressor housing and which supports one end side of the rotation shaft to rotate freely; and - a motor assembled from a cylindrical stator and a rotor that is provided on another end side of the rotation shaft and that rotates inside the stator , and which drives the compressing unit via the rotation shaft , - wherein the stator includes a plurality of metal plates which are stacked in an axial direction of the rotation shaft and a caulked joint portion at which the adjacent metal plates are joined to each other in a stacking direction is deformed in a thickness direction of the metal plates and is provided on the plurality of metal plates , characterized by a concave portion formed in a position corresponding to the caulked joint portion in a radial direction of the plurality of metal plates and a weld portion established by joining the concave portion that is recessed in an outer circumferential portion of the stator and an inner circumferential portion of the compressor housing via arc welding. - a cylindrical compressor housing which is provided with an inlet unit of a refrigerant and a discharging unit of the refrigerant; - a compressing unit which is disposed inside the compressor housing and which includes a cylinder and a piston for compressing the refrigerant that is sucked in from the inlet unit ; - a rotation shaft which is provided with the piston of the compressing unit ; - a bearing unit which is fixed to an inner portion of the compressor housing and which supports one end side of the rotation shaft to rotate freely; and - a motor assembled from a cylindrical stator and a rotor that is provided on another end side of the rotation shaft and that rotates inside the stator , and which drives the compressing unit via the rotation shaft , - wherein the stator includes a plurality of metal plates which are stacked in an axial direction of the rotation shaft and a caulked joint portion at which the adjacent metal plates are joined to each other in a stacking direction is deformed in a thickness direction of the metal plates and is provided on the plurality of metal plates , characterized by a concave portion formed in a position corresponding to the caulked joint portion in a radial direction of the plurality of metal plates and a weld portion established by joining the concave portion that is recessed in an outer circumferential portion of the stator and an inner circumferential portion of the compressor housing via arc welding.
A hose arrangement comprising a hose assembly and a first hose end component comprising a first connector portion mounted on a first end of the hose assembly , said first connector portion having a spigot which is received in the hose assembly and a clamping arrangement comprising a plurality of deformable fingers which surround the spigot and are arranged to be driven into contact with the exterior of the hose assembly under action of a locking nut ; wherein the hose assembly comprises; a hose end adaptor arrangement located in an end of a length of outer tube , wherein the hose end adaptor arrangement comprises; an adaptor which holds an inner component of the hose assembly which is nested within the outer tube of the hose assembly, and which comprises a first support portion on which the outer tube is received, and a second support portion on which the inner component is mounted, and a clamping member clamping the inner component to the second support portion of the adaptor , wherein: the adaptor comprises an insertion portion (I) for introduction in and clamping by the first hose connector portion with said insertion portion comprising a bore adapted to receive the spigot of the first hose connector portion , and the adaptor is dimensioned and arranged so that the insertion portion is clampable to the spigot of the first hose connector portion by the plurality of deformable fingers under action of the locking nut . wherein the hose assembly comprises; a hose end adaptor arrangement located in an end of a length of outer tube , wherein the hose end adaptor arrangement comprises; an adaptor which holds an inner component of the hose assembly which is nested within the outer tube of the hose assembly, and which comprises a first support portion on which the outer tube is received, and a second support portion on which the inner component is mounted, and a clamping member clamping the inner component to the second support portion of the adaptor , wherein: the adaptor comprises an insertion portion (I) for introduction in and clamping by the first hose connector portion with said insertion portion comprising a bore adapted to receive the spigot of the first hose connector portion , and the adaptor is dimensioned and arranged so that the insertion portion is clampable to the spigot of the first hose connector portion by the plurality of deformable fingers under action of the locking nut . the adaptor comprises an insertion portion (I) for introduction in and clamping by the first hose connector portion with said insertion portion comprising a bore adapted to receive the spigot of the first hose connector portion , and the adaptor is dimensioned and arranged so that the insertion portion is clampable to the spigot of the first hose connector portion by the plurality of deformable fingers under action of the locking nut .
A transmission method for Hybrid Automatic Repeat Request Acknowledgement, HARQ-ACK, feedback information, comprising: when a base station determines that a terminal is in a coverage-enhanced scenario; wherein, repetitive transmission is used in the coverage-enhanced scenario, determining, by the base station, a Physical Uplink Control Channel, PUCCH, corresponding to the terminal according to a preset transmission policy , wherein the transmission policy is: transmitting, by the base station, PUCCH indication signaling to the terminal, the indication signaling carrying information of one PUCCH of preset N PUCCHs, the one PUCCH being a PUCCH corresponding to the terminal, wherein N is a positive integer greater than or equal to 2; or determining a PUCCH corresponding to the terminal according to preset resources; or determining a preset terminal-specific PUCCH to be a PUCCH corresponding to the terminal; and receiving, by the base station, HARQ-ACK feedback information from the terminal through the PUCCH corresponding to the terminal ; characterized in that , when the transmission policy is: determining a PUCCH corresponding to the terminal according to preset resources; the preset resources comprise at least one of follows: a number of Control Channel Elements, CCEs, occupied by Physical Downlink Control Channel, PDCCH, sub-frames occupied by PDCCH, a number of sub-frames occupied by PDCCH, sub-frames occupied by PUCCH, a number of sub-frames occupied by PUCCH, sub-frames occupied by Physical Downlink Shared Channel, PDSCH, a number of sub-frames occupied by PDSCH, Physical Resource Blocks, PRBs, occupied by PDSCH, a number of PRBs occupied by PDSCH and an identification of the terminal, and, the step of determining a PUCCH corresponding to the terminal according to preset resources comprises: acquiring a reference PUCCH; determining a PUCCH offset according to the acquired reference PUCCH and the preset resources; and calculating a sum of an index of the reference PUCCH and the PUCCH offset, wherein the sum value is a PUCCH index. a number of Control Channel Elements, CCEs, occupied by Physical Downlink Control Channel, PDCCH, sub-frames occupied by PDCCH, a number of sub-frames occupied by PDCCH, sub-frames occupied by PUCCH, a number of sub-frames occupied by PUCCH, sub-frames occupied by Physical Downlink Shared Channel, PDSCH, a number of sub-frames occupied by PDSCH, Physical Resource Blocks, PRBs, occupied by PDSCH, a number of PRBs occupied by PDSCH and an identification of the terminal, and, the step of determining a PUCCH corresponding to the terminal according to preset resources comprises: acquiring a reference PUCCH; determining a PUCCH offset according to the acquired reference PUCCH and the preset resources; and calculating a sum of an index of the reference PUCCH and the PUCCH offset, wherein the sum value is a PUCCH index. acquiring a reference PUCCH; determining a PUCCH offset according to the acquired reference PUCCH and the preset resources; and calculating a sum of an index of the reference PUCCH and the PUCCH offset, wherein the sum value is a PUCCH index.
A method for lamination of a barrier film or sheet to a bulk layer of paper or paperboard or other cellulose-based material, said bulk layer being provided with going-through holes , the method comprising: coating the barrier film or sheet with a wet adhesive , feeding the coated barrier film or sheet to a nip formed between a nip roller and a support roller such that the non-coated side of the barrier film or sheet is in contact with the nip roller , feeding the bulk layer to said nip such that the bulk layer is in contact with the support roller , and feeding the bulk layer and the coated barrier film or sheet through the nip, thereby allowing the bulk layer to adhere to the barrier film or sheet by means of the adhesive , characterized in that the surface material of the nip roller is softer than the surface material of the support roller . coating the barrier film or sheet with a wet adhesive , feeding the coated barrier film or sheet to a nip formed between a nip roller and a support roller such that the non-coated side of the barrier film or sheet is in contact with the nip roller , feeding the bulk layer to said nip such that the bulk layer is in contact with the support roller , and feeding the bulk layer and the coated barrier film or sheet through the nip, thereby allowing the bulk layer to adhere to the barrier film or sheet by means of the adhesive , characterized in that the surface material of the nip roller is softer than the surface material of the support roller .
A method for determining a characteristic of a test cavity, the method comprising: sweeping through a plurality of optical frequencies within a bandwidth of a tunable laser as a function of time; for each of the plurality of optical frequencies, measuring interference signals from the test cavity, a first reference cavity having a first known characteristic, and a second reference cavity having a second known characteristic, the first reference cavity and the second reference cavity having different gap sizes; determining values of the plurality of optical frequencies from the measured interference signals of the first reference cavity and the second reference cavity and the first known characteristic of the first reference cavity and the second known characteristic of the second reference cavity, wherein determining the values of the plurality of optical frequencies comprises fitting the measured interference signals of the first reference cavity and the second reference cavity obtained for each of the plurality of optical frequencies to a mathematical model based on the first known characteristic of the first reference cavity and the second known characteristic of the second reference cavity; and determining the characteristic of the test cavity based on the measured interference signals for the test cavity using the determined values of the plurality of optical frequencies. sweeping through a plurality of optical frequencies within a bandwidth of a tunable laser as a function of time; for each of the plurality of optical frequencies, measuring interference signals from the test cavity, a first reference cavity having a first known characteristic, and a second reference cavity having a second known characteristic, the first reference cavity and the second reference cavity having different gap sizes; determining values of the plurality of optical frequencies from the measured interference signals of the first reference cavity and the second reference cavity and the first known characteristic of the first reference cavity and the second known characteristic of the second reference cavity, wherein determining the values of the plurality of optical frequencies comprises fitting the measured interference signals of the first reference cavity and the second reference cavity obtained for each of the plurality of optical frequencies to a mathematical model based on the first known characteristic of the first reference cavity and the second known characteristic of the second reference cavity; and determining the characteristic of the test cavity based on the measured interference signals for the test cavity using the determined values of the plurality of optical frequencies.
A cosmetic formulation comprising, a partially carbonated magnesium hydroxide (PCMH) of formula : [Mg(OH) 2 ] 10-x .[MgCO 3 ] x .[H 2 O] x wherein x is a real number between about 1 and 7, and wherein said cosmetic formulation is a perspiration-reducing formulation.
A method of signing data , comprising: receiving, from a requestor, a request to sign the data according to a requested configuration selected from a first configuration, in which the data is for use with any of the set of devices , and a second configuration in which the data is for use only with a subset of a set of devices ; modifying the data according to the requested configuration by: determining if the selected configuration is the first configuration; if the selected configuration is the first configuration, verifying that the requestor is permitted to sign the data in the first configuration; determining if the selected configuration is the second configuration; and adding an identifier to the data if the selected configuration is the second configuration; generating a data signature using the modified data ; transmitting the generated data signature to the requestor; receiving the modified data and the data signature in a device of the subset of the set of devices; verifying the data signature; determining if the added identifier matches an expected identifier; and accepting the data for use by the device only if the data signature is verified and the added identifier matches the expected identifier, wherein the data comprises a code image and the added identifier renders the modified code image unusable by devices of the set of devices other than the subset of devices . receiving, from a requestor, a request to sign the data according to a requested configuration selected from a first configuration, in which the data is for use with any of the set of devices , and a second configuration in which the data is for use only with a subset of a set of devices ; modifying the data according to the requested configuration by: determining if the selected configuration is the first configuration; if the selected configuration is the first configuration, verifying that the requestor is permitted to sign the data in the first configuration; determining if the selected configuration is the second configuration; and adding an identifier to the data if the selected configuration is the second configuration; determining if the selected configuration is the first configuration; if the selected configuration is the first configuration, verifying that the requestor is permitted to sign the data in the first configuration; determining if the selected configuration is the second configuration; and adding an identifier to the data if the selected configuration is the second configuration; generating a data signature using the modified data ; transmitting the generated data signature to the requestor; receiving the modified data and the data signature in a device of the subset of the set of devices; verifying the data signature; determining if the added identifier matches an expected identifier; and accepting the data for use by the device only if the data signature is verified and the added identifier matches the expected identifier, wherein the data comprises a code image and the added identifier renders the modified code image unusable by devices of the set of devices other than the subset of devices .
Method for producing steel using lump iron carriers in a converter able to rotate about a horizontal axis of rotation , wherein fuel and oxidising gas are injected through nozzles in the region of the converter floor into the hot converter which has been charged with lump iron carriers through a converter opening opposite a converter floor , and the hot combustion gasses are fed through the charging material before iron melt is supplied to the preheated charging material and the melt is decarburised to steel in a blowing position of the converter , characterised in that , after closure of the converter opening with a grating holding back the charging material , the converter charged with lump iron carriers is rotated about the axis of rotation from its charging position into a preheating position with the converter floor pointing upwards before the fuel and the oxidising gas are injected through the nozzles in the region of the converter floor to the combustion chamber forming above the charging material and the combustion gasses flowing through the charging material are discharged through the grating , and that, after preheating of the charging material , for supply of the iron melt, the converter is rotated back to its charging position and the converter opening is opened.