mhurhangee/patent-ind-claim-en huggingface dataset:
A storage console for a vehicle comprising: At least one storage unit including a storage space for storing articles therein and adapted to be arranged adjacent/beside a front row seat of the vehicle; a housing at least partially enclosing the storage unit , the housing is slidably arranged on/over the storage unit to slide linearly along a longitudinal plane of the storage unit between a first position and a second position . wherein the housing has a lid for covering the storage unit such that the lid is also moveable along with the housing when the housing moves between the first position and the second position , characterized in that the lid is movably arranged on a portion of the housing such that in the first position of the housing the lid pivot around a pivotal axis to provide access to the storage unit . At least one storage unit including a storage space for storing articles therein and adapted to be arranged adjacent/beside a front row seat of the vehicle; a housing at least partially enclosing the storage unit , the housing is slidably arranged on/over the storage unit to slide linearly along a longitudinal plane of the storage unit between a first position and a second position . wherein the housing has a lid for covering the storage unit such that the lid is also moveable along with the housing when the housing moves between the first position and the second position , characterized in that the lid is movably arranged on a portion of the housing such that in the first position of the housing the lid pivot around a pivotal axis to provide access to the storage unit .
Electric machine comprising an electromagnetic motor and a complementary connection assembly, said electromagnetic motor comprising a magnetic stator circuit having radially extending teeth and coils (2 to 6) surrounding at least part of said teeth, each coil (2 to 6) being formed by a winding of an insulated conductor around an insulating body , each winding comprising two winding ends, the connection assembly comprising a first subassembly formed by arcuate conductive tracks (11 to 14), each of said arcuate tracks (11 to 14) terminating at one end in at least one connection pin (21 to 24) which extends in a connection direction and terminating at the other end in a pad for coupling to one of said coils (2 to 6), said arcuate tracks (11 to 14) being joined by an insulating plastics material, the insulating bodies of said coils (2 to 6) having two slots on their upper part for inserting connectors , each formed by a conductive blade having a first connection end having a coupling zone suitable for receiving and conductively engaging one of the winding ends of the coil (2 to 6), and a pin on the second end, opposite said coupling zone and forming a connection which is forcibly inserted, without welding, into a complementary coupling pad formed in one of said arcuate tracks (11 to 14), the connection assembly being produced by overmolding the arcuate tracks with a plastics material and being devoid of an electronic circuit.
A method for covering a primary element (20; 30) for optical spectacles , wherein at least a partial embedding of the primary element (20; 30) is implemented by an outer covering lining (21; 31) in order to obtain a functional element (2; 3) of optical spectacles , said covering method being characterized in that it comprises the following steps: - preparing a molding composition comprising at least a mixture of cork particles into a thermoformable elastomeric material; - making a first embedding member (25; 35) and a second embedding member (26; 36) by molding the molding composition, the first embedding member (25; 35) having a first outer face (250; 350) and a first inner face (251; 351) in which is formed a first groove (252; 352) bordered by at least one first bearing area (253; 353), and the second embedding member (26; 36) having a second outer face (260; 360) and a second inner face (261; 361) in which is formed a second groove (263; 362) bordered by at least one second bearing area (263; 363); - positioning the first embedding member (25; 35) and the second embedding member (26; 36) around the primary element (20; 30), such that said primary element (20; 30) is positioned inside the first groove (252; 352) and the second groove (263; 362), and that the at least one first bearing area (253; 353) and the at least one second bearing area (263; 363) are in contact with one another; - securing the at least one first bearing area (253; 353) and the at least one second bearing area (263; 363), so that the first embedding member (25; 35) and the second embedding member (26; 36) form the outer covering lining (21; 31) embedding at least partially the primary element (20; 30). - preparing a molding composition comprising at least a mixture of cork particles into a thermoformable elastomeric material; - making a first embedding member (25; 35) and a second embedding member (26; 36) by molding the molding composition, the first embedding member (25; 35) having a first outer face (250; 350) and a first inner face (251; 351) in which is formed a first groove (252; 352) bordered by at least one first bearing area (253; 353), and the second embedding member (26; 36) having a second outer face (260; 360) and a second inner face (261; 361) in which is formed a second groove (263; 362) bordered by at least one second bearing area (263; 363); - positioning the first embedding member (25; 35) and the second embedding member (26; 36) around the primary element (20; 30), such that said primary element (20; 30) is positioned inside the first groove (252; 352) and the second groove (263; 362), and that the at least one first bearing area (253; 353) and the at least one second bearing area (263; 363) are in contact with one another; - securing the at least one first bearing area (253; 353) and the at least one second bearing area (263; 363), so that the first embedding member (25; 35) and the second embedding member (26; 36) form the outer covering lining (21; 31) embedding at least partially the primary element (20; 30).
A medicament injection device comprising: a housing , a cartridge holder mounted in the housing and configured to receive a cartridge containing a medicament, an injection needle having a proximal end and a distal end , an injection needle holder which is pivotal and to which the injection needle is fixed, and an actuating mechanism configured to pivot the injection needle holder relative to the cartridge holder between a storage position in which, when a cartridge is received in the cartridge holder , the distal end of the injection needle is spaced from the cartridge , and a use position in which, when a cartridge is received in the cartridge holder , the distal end of the injection needle can engage the cartridge . a housing , a cartridge holder mounted in the housing and configured to receive a cartridge containing a medicament, an injection needle having a proximal end and a distal end , an injection needle holder which is pivotal and to which the injection needle is fixed, and an actuating mechanism configured to pivot the injection needle holder relative to the cartridge holder between a storage position in which, when a cartridge is received in the cartridge holder , the distal end of the injection needle is spaced from the cartridge , and a use position in which, when a cartridge is received in the cartridge holder , the distal end of the injection needle can engage the cartridge .
A gas turbine engine comprising: first and second shafts rotatable about a common axis; a first turbine section supported on the first shaft ; second compressor and turbine sections supported on the second shaft ; a fan ; a first compressor section ; a differential gear train coupling the fan and the first compressor section to the first shaft , wherein the differential gear train is an epicyclic gear train including a sun gear , planetary gears arranged about and intermeshing with the sun gear , and a ring gear circumscribing and intermeshing with the planetary gears , wherein the planetary gears are supported by a carrier , and wherein the first compressor section is supported by a compressor rotor , and the fan is supported by a fan shaft , the ring gear connected to the fan shaft , and the sun gear connected to the compressor rotor ; and a speed change device which interconnects the first shaft and the differential gear train , the speed change device configured to provide a speed reduction from the first shaft to the carrier of the differential gear train ; characterised in that an inducer is operatively coupled to the differential gear train . first and second shafts rotatable about a common axis; a first turbine section supported on the first shaft ; second compressor and turbine sections supported on the second shaft ; a fan ; a first compressor section ; a differential gear train coupling the fan and the first compressor section to the first shaft , wherein the differential gear train is an epicyclic gear train including a sun gear , planetary gears arranged about and intermeshing with the sun gear , and a ring gear circumscribing and intermeshing with the planetary gears , wherein the planetary gears are supported by a carrier , and wherein the first compressor section is supported by a compressor rotor , and the fan is supported by a fan shaft , the ring gear connected to the fan shaft , and the sun gear connected to the compressor rotor ; and a speed change device which interconnects the first shaft and the differential gear train , the speed change device configured to provide a speed reduction from the first shaft to the carrier of the differential gear train ; characterised in that an inducer is operatively coupled to the differential gear train .
A switching apparatus comprising: a first current-conductive branch including a first switching element , the first switching element configured to be switchable to selectively permit and block a flow of current in the first current-conductive branch ; a second current-conductive branch including a second switching element , the second switching element configured to be switchable to selectively permit and block a flow of current in the second current-conductive branch ; and first and second terminals for connection, in use, to an electrical network , wherein the first and second current-conductive branches extend between the first and second terminals , characterized in that the first current-conductive branch further includes an energy storage element electrically coupled to the second switching element so that the energy storage element is configured as a power source for enabling the operation of the second switching element , and the first switching element is configured to be switchable to selectively direct a current flowing in the first current-conductive branch to flow through the energy storage element so as to store energy in the energy storage element. a first current-conductive branch including a first switching element , the first switching element configured to be switchable to selectively permit and block a flow of current in the first current-conductive branch ; a second current-conductive branch including a second switching element , the second switching element configured to be switchable to selectively permit and block a flow of current in the second current-conductive branch ; and first and second terminals for connection, in use, to an electrical network , wherein the first and second current-conductive branches extend between the first and second terminals , characterized in that the first current-conductive branch further includes an energy storage element electrically coupled to the second switching element so that the energy storage element is configured as a power source for enabling the operation of the second switching element , and the first switching element is configured to be switchable to selectively direct a current flowing in the first current-conductive branch to flow through the energy storage element so as to store energy in the energy storage element.
An integrated FET switch circuit including (a) a first wafer/die including a first set of groups of FET cells (602a-602e ; 902a-902b) laid out in a sequence, each group of FET cells including a first side drain bus (D) and a second side source bus (S); and (b) a second wafer/die joined to the first wafer/die through hybrid bonding interconnects and including a second set of groups of FET cells (604a-604f ; 904a-904c) laid out in a sequence, each group of FET cells including a first side drain bus (D) and a second side source bus (S), wherein the first side drain bus of each group in the first wafer/die is electrically connected through the hybrid bonding interconnects to the second side source bus of a first corresponding group in the second wafer/die; and wherein the second side source bus of each group in the first wafer/die is electrically connected through the hybrid bonding interconnects to the first side drain bus of a second corresponding group in the second wafer/die. (a) a first wafer/die including a first set of groups of FET cells (602a-602e ; 902a-902b) laid out in a sequence, each group of FET cells including a first side drain bus (D) and a second side source bus (S); and (b) a second wafer/die joined to the first wafer/die through hybrid bonding interconnects and including a second set of groups of FET cells (604a-604f ; 904a-904c) laid out in a sequence, each group of FET cells including a first side drain bus (D) and a second side source bus (S), wherein the first side drain bus of each group in the first wafer/die is electrically connected through the hybrid bonding interconnects to the second side source bus of a first corresponding group in the second wafer/die; and wherein the second side source bus of each group in the first wafer/die is electrically connected through the hybrid bonding interconnects to the first side drain bus of a second corresponding group in the second wafer/die. wherein the first side drain bus of each group in the first wafer/die is electrically connected through the hybrid bonding interconnects to the second side source bus of a first corresponding group in the second wafer/die; and wherein the second side source bus of each group in the first wafer/die is electrically connected through the hybrid bonding interconnects to the first side drain bus of a second corresponding group in the second wafer/die.
A process for producing conductive composites, the process comprising the steps of: a) soaking an elastomer in an organic solvent; b) soaking the elastomer from step a) in a solution of a conductive exfoliated 2-dimensional nano-material dispersed in an organic solvent:water mixture, such that the conductive nano- material is incorporated into the elastomer structure; c) washing the conductive exfoliated 2-dimensional nano-material-incorporated elastomer in deionised water; and d) drying the washed conductive exfoliated 2-dimensional nano-material-incorporated elastomer to produce the conductive composite, wherein the conductive composite incorporates the exfoliated 2-dimensional nano-material throughout the structure of the elastomer without affecting the integrity of the properties of the elastomer. a) soaking an elastomer in an organic solvent; b) soaking the elastomer from step a) in a solution of a conductive exfoliated 2-dimensional nano-material dispersed in an organic solvent:water mixture, such that the conductive nano- material is incorporated into the elastomer structure; c) washing the conductive exfoliated 2-dimensional nano-material-incorporated elastomer in deionised water; and d) drying the washed conductive exfoliated 2-dimensional nano-material-incorporated elastomer to produce the conductive composite,
An electrode leadless implantable heart stimulator comprising an acceleration sensor that delivers an acceleration signal as an output signal, wherein the acceleration sensor is a sum signal of a component caused by an intrinsic heart movement and of a component caused by a body movement and the acceleration signal is connected to an activity determination unit which is configured to generate an activity signal from the acceleration signal as a result of the activity determination unit subtracting the component of the acceleration signal caused by the intrinsic heart movement from the acceleration signal, characterised in that the acceleration signal is a signed signal and the activity determination unit for generation of the activity signal is configured to integrate the acceleration signal over a predefined period of time in order to thus form an acceleration integral.
A computer implemented method of securely executing a Just-In-Time, JIT, compiled code in a runtime environment, comprising: using at least one processor for: receiving, by an application, from a JIT executing process that is executing in a context of the application a request to compile in runtime a code segment ; initiating, by the application, a JIT compiling process to compile said code segment to generate an executable code segment ; and storing said executable code segment in a shared memory , said JIT executing process having read-execute access rights to said shared memory; wherein said JIT executing process and said JIT compiling process are different processes; characterized in that : wherein said JIT compiling process is executed at an application level in the context of the application, and providing to said JIT executing process a pointer to said executable code segment in said shared memory . receiving, by an application, from a JIT executing process that is executing in a context of the application a request to compile in runtime a code segment ; initiating, by the application, a JIT compiling process to compile said code segment to generate an executable code segment ; and storing said executable code segment in a shared memory , said JIT executing process having read-execute access rights to said shared memory; wherein said JIT executing process and said JIT compiling process are different processes; characterized in that : wherein said JIT compiling process is executed at an application level in the context of the application, and providing to said JIT executing process a pointer to said executable code segment in said shared memory . wherein said JIT compiling process is executed at an application level in the context of the application, and providing to said JIT executing process a pointer to said executable code segment in said shared memory .
A method for transmitting an uplink signal by a user equipment in a wireless communication system, the method comprising: receiving, from a base station , an uplink grant scheduling the uplink signal, wherein the uplink grant comprises information on a listen-before-talk, LBT, type and information related to an uplink signal transmission period, wherein the LBT type is indicated as one of a plurality of predetermined LBT types by the information on the LBT type; performing LBT with the LBT type; and based on the LBT, transmitting the uplink signal to the base station during the uplink signal transmission period; wherein the plurality of the predetermined LBT types comprises: a first LBT type related to performing LBT based on random back-off, and a second LBT type related to performing LBT based on a clear channel assessment, CCA, result value after CCA is performed for a predetermined time, wherein the information on the LBT type comprises at least one bit, wherein the at least one bit with a first value is mapped to the first LBT type, and wherein the at least one bit with a second value is mapped to the second LBT type. receiving, from a base station , an uplink grant scheduling the uplink signal, wherein the uplink grant comprises information on a listen-before-talk, LBT, type and information related to an uplink signal transmission period, wherein the LBT type is indicated as one of a plurality of predetermined LBT types by the information on the LBT type; performing LBT with the LBT type; and based on the LBT, transmitting the uplink signal to the base station during the uplink signal transmission period; wherein the plurality of the predetermined LBT types comprises: a first LBT type related to performing LBT based on random back-off, and a second LBT type related to performing LBT based on a clear channel assessment, CCA, result value after CCA is performed for a predetermined time, a first LBT type related to performing LBT based on random back-off, and a second LBT type related to performing LBT based on a clear channel assessment, CCA, result value after CCA is performed for a predetermined time, wherein the information on the LBT type comprises at least one bit, wherein the at least one bit with a first value is mapped to the first LBT type, and wherein the at least one bit with a second value is mapped to the second LBT type.
A process of manufacturing decorated natural leather articles including the steps of: - communicating a selection of a leather article with a desired decoration together with an identification code via a digital connection to a computer server storing data about leather articles that are manufactured by a leather article manufacturer ; - retrieving the desired decoration and data of the selected leather article from the computer server by a digital connection and using it for inkjet printing on a base coated leather crust , the inkjet printed leather including inkjet printed leather pieces having a printed decoration and a printed identification code ; - transporting the inkjet printed leather to the leather article manufacturer ; and - using the printed identification code to assemble the desired leather article from the inkjet printed leather pieces cut out from the inkjet printed leather . - communicating a selection of a leather article with a desired decoration together with an identification code via a digital connection to a computer server storing data about leather articles that are manufactured by a leather article manufacturer ; - retrieving the desired decoration and data of the selected leather article from the computer server by a digital connection and using it for inkjet printing on a base coated leather crust , the inkjet printed leather including inkjet printed leather pieces having a printed decoration and a printed identification code ; - transporting the inkjet printed leather to the leather article manufacturer ; and - using the printed identification code to assemble the desired leather article from the inkjet printed leather pieces cut out from the inkjet printed leather .
Heat resistant separation fabric for use as tool cover in glass processing at temperatures higher than 600°C; wherein the heat resistant separation fabric comprises heat resistant yarns ; wherein the heat resistant yarns comprise - a core ; wherein the core is a core yarn, wherein the core yarn is a multifilament glass yarn; wherein the core yarn is present in the heat resistant yarn without crimp; and - at least one wrap yarn , wherein the at least one wrap yarn comprises stainless steel fibers; and wherein the at least one wrap yarn is wrapped around the core yarn. - a core ; wherein the core is a core yarn, wherein the core yarn is a multifilament glass yarn; wherein the core yarn is present in the heat resistant yarn without crimp; and - at least one wrap yarn , wherein the at least one wrap yarn comprises stainless steel fibers; and wherein the at least one wrap yarn is wrapped around the core yarn.