mhurhangee/patent-ind-claim-en huggingface dataset:
A method for providing Non-Orthogonal Multiple Access (NOMA) in a wireless communication network, the method comprising: dynamically creating , by a base station , a plurality of user equipment groups within a network coverage area based on a modulation coding scheme (MCS) for each user equipment , wherein each of the plurality of user equipment groups comprises a plurality of user equipment ; determining , by the base station , an appropriate codeword for each of the plurality of user equipment groups wherein determining the appropriate codeword comprises correlating, for each of the plurality of user equipment groups, a codeword for each user equipment with a codeword for each of the other user equipment in a corresponding user equipment group and determining the appropriate codeword is based on at least one of a received signal power for each of the plurality of user equipment groups, and a signal to interference noise ratio (SINR) of each of the plurality of user equipment groups; and assigning , by the base station , the appropriate codeword to each of the plurality of user equipment groups. dynamically creating , by a base station , a plurality of user equipment groups within a network coverage area based on a modulation coding scheme (MCS) for each user equipment , wherein each of the plurality of user equipment groups comprises a plurality of user equipment ; determining , by the base station , an appropriate codeword for each of the plurality of user equipment groups wherein determining the appropriate codeword comprises correlating, for each of the plurality of user equipment groups, a codeword for each user equipment with a codeword for each of the other user equipment in a corresponding user equipment group and determining the appropriate codeword is based on at least one of a received signal power for each of the plurality of user equipment groups, and a signal to interference noise ratio (SINR) of each of the plurality of user equipment groups; and assigning , by the base station , the appropriate codeword to each of the plurality of user equipment groups.
A shuttle storage for transport boxes for wafer discs, the shuttle storage comprising: a horizontal drive alley for a storage vehicle; a linear motor for the storage vehicle, the linear motor arranged on a floor of the drive alley ; a transfer station configured to transfer the transport boxes into or from the shuttle storage ; a support structure that is suspended from a room ceiling; storage spaces for the transfer boxes , wherein the storage spaces are attached at the support structure in a horizontally extending storage plane along the drive alley ; and ceiling elements attached at the room ceiling, and support elements for the storage spaces , wherein the support elements are attached at the ceiling elements so that the support elements are adjustable with respect to vertical height, wherein the ceiling elements are initially attached at the room ceiling, the support elements for the storage spaces are adjusted with respect to vertical height in the storage plane, and thereafter the storage spaces are attached at the support elements . a horizontal drive alley for a storage vehicle; a linear motor for the storage vehicle, the linear motor arranged on a floor of the drive alley ; a transfer station configured to transfer the transport boxes into or from the shuttle storage ; a support structure that is suspended from a room ceiling; storage spaces for the transfer boxes , wherein the storage spaces are attached at the support structure in a horizontally extending storage plane along the drive alley ; and ceiling elements attached at the room ceiling, and support elements for the storage spaces , wherein the support elements are attached at the ceiling elements so that the support elements are adjustable with respect to vertical height, wherein the ceiling elements are initially attached at the room ceiling, the support elements for the storage spaces are adjusted with respect to vertical height in the storage plane, and thereafter the storage spaces are attached at the support elements .
A method for assessing damage to a composite material covered with a polyurethane-type paint in which two separate criteria (C1, C2) characterizing the thermal aging of the paint are measured on the same spectrogram obtained by infrared spectrometry, each of said two separate criteria comprising the measurement on the curve of the spectrogram of a height of a particular peak , giving two independent assessments of this thermal aging of the paint, then these two separate criteria (C1, C2) are combined between them to obtain a significant result of the level of damage.
A process for producing an antibody or a fragment thereof comprising the steps of: (i) transforming a bacterial host cell with a single vector consisting of a dual cistronic expression system; (ii) culturing the transformed bacterial cells in suitable medium to express the antibody or a fragment thereof as inclusion bodies; (iii) performing solubilization of the said inclusion bodies; (iv) performing refolding of the antibody or the fragment thereof; wherein the dual cistronic expression system comprises: a) a first cistron comprising a T7 promoter operably linked with a polynucleotide sequence encoding a heavy chain of the antibody or the fragment thereof; b) a second cistron comprising an arabinose promoter operably linked with a polynucleotide sequence encoding a light chain of the antibody or the fragment thereof; wherein the first and second cistrons are positioned in the single vector and express the antibody or fragment thereof as inclusion bodies; and wherein heavy chain expression is induced by IPTG while light chain expression is induced by arabinose such that the heavy chain and light chain are expressed at equimolar levels of expression. (i) transforming a bacterial host cell with a single vector consisting of a dual cistronic expression system; (ii) culturing the transformed bacterial cells in suitable medium to express the antibody or a fragment thereof as inclusion bodies; (iii) performing solubilization of the said inclusion bodies; (iv) performing refolding of the antibody or the fragment thereof; wherein the dual cistronic expression system comprises: a) a first cistron comprising a T7 promoter operably linked with a polynucleotide sequence encoding a heavy chain of the antibody or the fragment thereof; b) a second cistron comprising an arabinose promoter operably linked with a polynucleotide sequence encoding a light chain of the antibody or the fragment thereof; wherein the first and second cistrons are positioned in the single vector and express the antibody or fragment thereof as inclusion bodies; and wherein heavy chain expression is induced by IPTG while light chain expression is induced by arabinose such that the heavy chain and light chain are expressed at equimolar levels of expression. a) a first cistron comprising a T7 promoter operably linked with a polynucleotide sequence encoding a heavy chain of the antibody or the fragment thereof; b) a second cistron comprising an arabinose promoter operably linked with a polynucleotide sequence encoding a light chain of the antibody or the fragment thereof;
A a polyaxial bone anchoring device including an anchoring element comprising a shank for anchoring in bone and a head , a receiving part (5, 5', 5", 5′′′, 5"", 5000) comprising a head receiving portion having a wall defining an accommodation space (52, 52', 52", 52′′′) for accommodating the head of the anchoring element and a central axis (C) extending through the accommodation space; and a locking member mountable to the receiving part such that it embraces at least partially the wall of head receiving portion and is movable between at least a first position and a second position; wherein the head receiving portion is configured to assume at least a first configuration in which the head can pivot in the accommodation space when the locking member is in the first position and a second configuration in which the head is locked in the accommodation space when the locking member is in the second position; characterized in that head receiving portion comprises at least one cavity (57, 57', 57", 57′′′) in the wall that is configured such that a thickness of the wall in a radial direction with respect to the central axis (C) between the accommodation space (52, 52', 52", 52′′′) and the locking member is reduced by the cavity. an anchoring element comprising a shank for anchoring in bone and a head , a receiving part (5, 5', 5", 5′′′, 5"", 5000) comprising a head receiving portion having a wall defining an accommodation space (52, 52', 52", 52′′′) for accommodating the head of the anchoring element and a central axis (C) extending through the accommodation space; and a locking member mountable to the receiving part such that it embraces at least partially the wall of head receiving portion and is movable between at least a first position and a second position; wherein the head receiving portion is configured to assume at least a first configuration in which the head can pivot in the accommodation space when the locking member is in the first position and a second configuration in which the head is locked in the accommodation space when the locking member is in the second position; characterized in that head receiving portion comprises at least one cavity (57, 57', 57", 57′′′) in the wall that is configured such that a thickness of the wall in a radial direction with respect to the central axis (C) between the accommodation space (52, 52', 52", 52′′′) and the locking member is reduced by the cavity.
Connecting device for connecting an expansion tank to an operating fluid tank for a motor vehicle, such that the expansion tank is arranged in an operating fluid tank interior , characterized in that the connecting device comprises the following: - a first connecting surface which surrounds a through-opening of the connecting device for integrally bonded connection to an inner surface of an expansion tank wall ; and - a second connecting surface which surrounds the through-opening of the connecting device for integrally bonded connection to an inner surface of an operating fluid tank wall . - a first connecting surface which surrounds a through-opening of the connecting device for integrally bonded connection to an inner surface of an expansion tank wall ; and - a second connecting surface which surrounds the through-opening of the connecting device for integrally bonded connection to an inner surface of an operating fluid tank wall .
An aerosol generating apparatus provided with a movable heater , the aerosol generating apparatus comprising: a heater that has an end portion which is inserted into a cigarette and heats the cigarette by operating by means of an electrical signal; a support portion supporting the heater to be movable within a pre-determined range in a longitudinal direction of the cigarette ; and a rotating member rotatably coupled to the support portion , and rotating and transmitting a driving force to the heater to move the heater in the longitudinal direction of the cigarette . a heater that has an end portion which is inserted into a cigarette and heats the cigarette by operating by means of an electrical signal; a support portion supporting the heater to be movable within a pre-determined range in a longitudinal direction of the cigarette ; and a rotating member rotatably coupled to the support portion , and rotating and transmitting a driving force to the heater to move the heater in the longitudinal direction of the cigarette .
Covering device for covering an area of a roof, preferably for fastening a solar panel or a photovoltaic module, comprising a metal plate with a deformable fitting region and with a cover region , wherein the cover region has corrugations , and a step protection device disposed on the underside of the metal plate , characterised in that the metal plate is at least substantially free of openings. a metal plate with a deformable fitting region and with a cover region , wherein the cover region has corrugations , and a step protection device disposed on the underside of the metal plate , characterised in that the metal plate is at least substantially free of openings.
A medical thin-film mesh device covered with a medical thin-film mesh that comprises a plurality of spirals , that are omni-directionally expandable, wherein each of the plurality of spirals comprises a plurality of spiral arms .
Process for producing graphene nanoplatelets having a C/O ratio ≥ 100:1, comprising: a) expanding flakes of intercalated graphite having a lateral size of ≤ 500 μm by exposing said flakes to a temperature from 1300 to 12000°C for a time of less than 2 seconds, b) dispersing the obtained expanded graphite in a dispersing medium, characterized in that : c) the dispersion obtained from step b) is subjected to exfoliation and size reduction treatment by high pressure homogenization in a homogenizer in which the dispersion of expanded graphite is pumped at a pressure above 35 MPa through one or more micro-channels or necks having a transverse section of no more than 500 μm, wherein the particles of expanded graphite are subjected to shear stresses and are caused to collide at an energy level from 5 to 200 Wh/g; d) said dispersing medium is water and said dispersion is carried out in the absence of a surfactant or in the presence of a surfactant in an amount not higher than 1% by weight of the weight of said expanded graphite; e) said exfoliation and size reduction treatment of said step c) produces graphene nanoplatelets, at least 90% of which have a lateral size (x, y) from 50 to 50,000 nm and a thickness (z) from 0.34 to 50 nm, the lateral size being greater than the thickness (x, y > z). a) expanding flakes of intercalated graphite having a lateral size of ≤ 500 μm by exposing said flakes to a temperature from 1300 to 12000°C for a time of less than 2 seconds, b) dispersing the obtained expanded graphite in a dispersing medium, characterized in that : c) the dispersion obtained from step b) is subjected to exfoliation and size reduction treatment by high pressure homogenization in a homogenizer in which the dispersion of expanded graphite is pumped at a pressure above 35 MPa through one or more micro-channels or necks having a transverse section of no more than 500 μm, wherein the particles of expanded graphite are subjected to shear stresses and are caused to collide at an energy level from 5 to 200 Wh/g; d) said dispersing medium is water and said dispersion is carried out in the absence of a surfactant or in the presence of a surfactant in an amount not higher than 1% by weight of the weight of said expanded graphite; e) said exfoliation and size reduction treatment of said step c) produces graphene nanoplatelets, at least 90% of which have a lateral size (x, y) from 50 to 50,000 nm and a thickness (z) from 0.34 to 50 nm, the lateral size being greater than the thickness (x, y > z).
A wiper mount for use in a wiper mount structure of an ink jet printer, wherein the wiper mount is arranged to move along a nozzle plate comprising a nozzle face of a print head of the printer in a longitudinal direction (x) of the nozzle plate and comprises a holder for holding a wiper , and a spring assembly capable of elastically biasing the holder and the wiper against the nozzle face of the nozzle plate and capable of elastically yielding to a rotation of the wiper about an axis (A) in parallel with the longitudinal direction (x), characterized in that the wiper mount comprises a rear wall and in that the spring assembly comprises vertical leaf spring portions , the vertical leaf spring portions and the rear wall constitute a parallelogram linkage, and the spring assembly is arranged to elastically yield to a displacement of the wiper in a transverse direction (y) in parallel with the nozzle face and also to a displacement of the wiper normal to the longitudinal direction (x)
A coagglomerate of crystalline mannitol and of granular starch, wherein: - the tableting capacity, determined according to test A, is greater than 120 N, preferably between 200 and 450 N, - the flow grade, determined according to test B, is between 3 and 15 seconds, preferably between 4 and 8 seconds, - the mannitol/starch ratio is between 99.5/0.5 and 50/50 and preferably between 95/5 and 70/30. - the tableting capacity, determined according to test A, is greater than 120 N, preferably between 200 and 450 N, - the flow grade, determined according to test B, is between 3 and 15 seconds, preferably between 4 and 8 seconds, - the mannitol/starch ratio is between 99.5/0.5 and 50/50 and preferably between 95/5 and 70/30.
Road reflector with anti-condensation and anti-frost heating system, the reflector being fundamentally constituted by a support with a hinged fastening holding a convex mirror with a heating system by means of electrical resistance either wired or screen printed or sputtered and an insulating system , a thermal sensor , a hygrometric sensor , a heating control system of PWM type and an electrical energy source , wherein the heating control is obtained modulating the PWM power by means of a PID control whose proportional mode P is 1/Δt or whose derivative mode D is - Δt/Δτ (-dt/dτ) and whose integrative mode I is adjusted by means of a trimmer; where Δt (dt) is the difference between the ambient temperature tA and the corresponding dew or frost temperature tS obtained through a microprocessor elaborating the signals of the thermal sensor and hygrometric sensor by means of an algorithm containing the relationship of the psychrometric diagram J-X of the humid air and where Δτ (dτ) is the corresponding variation on time.
A drive apparatus , comprising: a first gripping device fixed rotationally and axially with respect to a support structure , the first gripping device configured to selectively grip an elongate member; and a second gripping device comprising a first pair of opposing pads mounted to but movable with respect to the support structure , the first pair of opposing pads configured to selectively grip and move an elongate member with respect to the support structure ; wherein the first pair of opposing pads of the second gripping device are configured to move the elongate member across a distance having a magnitude greater than the range of motion of the first pair of opposing pads ; characterized in that the first pair of opposing pads are configured to move axially with respect to the support structure to effect a corresponding axial movement of the elongate member, and wherein the first pair of opposing pads are configured to translate with respect to one another across a limited range of translational motion to effect rotational movement of the elongate member, wherein the drive apparatus is configured to cooperatively drive the first pairs of opposing pads and the first gripping device to continuously grip the elongate member to rotate and translate the elongate member with respect to the support structure. a first gripping device fixed rotationally and axially with respect to a support structure , the first gripping device configured to selectively grip an elongate member; and a second gripping device comprising a first pair of opposing pads mounted to but movable with respect to the support structure , the first pair of opposing pads configured to selectively grip and move an elongate member with respect to the support structure ; wherein the first pair of opposing pads of the second gripping device are configured to move the elongate member across a distance having a magnitude greater than the range of motion of the first pair of opposing pads ; characterized in that the first pair of opposing pads are configured to move axially with respect to the support structure to effect a corresponding axial movement of the elongate member, and wherein the first pair of opposing pads are configured to translate with respect to one another across a limited range of translational motion to effect rotational movement of the elongate member, wherein the drive apparatus is configured to cooperatively drive the first pairs of opposing pads and the first gripping device to continuously grip the elongate member to rotate and translate the elongate member with respect to the support structure.
A tire comprising a rubber composition comprising at least: - more than 50 phr and up to 100 phr of a copolymer based on styrene and butadiene as a first diene elastomer; - 0 to less than 50 phr of a second diene elastomer which is different from the first diene elastomer; - between 20 and 120 phr, preferably between 25 and 105 phr, of a liquid plasticizer; - between 200 and 600 phr of metal particles having a density of between 4 and 20 g/cm 3 and a BET surface area of between 0.1 and 4.5 m 2 /g; and - less than 20 phr of a reinforcing filler having a density of less than 3 g/cm 3 . - more than 50 phr and up to 100 phr of a copolymer based on styrene and butadiene as a first diene elastomer; - 0 to less than 50 phr of a second diene elastomer which is different from the first diene elastomer; - between 20 and 120 phr, preferably between 25 and 105 phr, of a liquid plasticizer; - between 200 and 600 phr of metal particles having a density of between 4 and 20 g/cm 3 and a BET surface area of between 0.1 and 4.5 m 2 /g; and - less than 20 phr of a reinforcing filler having a density of less than 3 g/cm 3 .
A method for processing a print job by a document processing system comprising a plurality of devices , the plurality of devices comprising at least one printer and at least one finisher which is an off-line finisher or a near-line finisher in order to deliver an end print product according to print specifications of the print job, each device of the plurality of devices being described in a dedicated device model comprising constraints and capabilities of said device, the method comprising the steps of - receiving (S1) the print job at the document processing system with print specifications, - automatically generating (S2) a production route for the end product by selecting by means of the device models the at least one printer and the at least one finisher to deliver the end product, - simulating (S3) the production route for the end product by executing the device models for the selected devices , - generating (S4) directly from the simulation of the production route finishing instructions for an operator of the at least one finisher , and - processing (S5) the print job by printing the end product by the at least one printer and by finishing the end product by the at least one finisher according to the generated finishing instructions . - receiving (S1) the print job at the document processing system with print specifications, - automatically generating (S2) a production route for the end product by selecting by means of the device models the at least one printer and the at least one finisher to deliver the end product, - simulating (S3) the production route for the end product by executing the device models for the selected devices , - generating (S4) directly from the simulation of the production route finishing instructions for an operator of the at least one finisher , and - processing (S5) the print job by printing the end product by the at least one printer and by finishing the end product by the at least one finisher according to the generated finishing instructions .
A method for treating, in particular rehabilitating, a water installation system, wherein at least a partial flow of the water is passed through a container filled with a cross-linked silica which is provided as a solid, and wherein the water is passed through an alkalizing filter material that contains one or a mixture of at least two of the materials selected from the group consisting of carbonates and/or metal oxides and/or semi-metal oxides, and wherein a pipeline made of galvanized, low-alloy or unalloyed iron material is treated.