mhurhangee/patent-ind-claim-en huggingface dataset:
Actuator module comprising a piezoceramic multilayer actuator arranged in a housing , the housing being hermetically sealed and a chamber being arranged between the multilayer actuator and the housing , and the housing consisting of a housing cover , a housing shell and a housing base , and electrical connections for the multilayer actuator being guided into the housing , characterized in that the housing is hermetically sealed by means of welding, in particular laser welding, brazing with metal solder, soldering with glass solder or soft-soldering, the chamber is partially filled or filled with a medium , the medium absorbs and chemically converts water as it hardens, and the housing base consists of metal and the electrical connections are guided into the interior of the housing via a glass feed-through or ceramic feed-through in the housing base or the housing base consists of ceramic and comprises metallized openings into which the electrical connections are soldered.
A multiple bioreactor system for continuous fermentation, comprising: a. two or more primary bioreactors (101-104) adapted for fermentation of a gaseous substrate by one or more microorganisms to produce a fermentation broth; b. one or more secondary bioreactors adapted for fermentation of a gaseous substrate by one or more microorganisms to produce one or more products; and c. a central bleed line , and d. valves integrated with the inlet conduits of the primary and secondary bioreactors. wherein at least two of the primary bioreactors of the system (101-104) are capable of fluid communication with each other and fluid communication with at least one secondary bioreactor via the central bleed line , wherein fluid communication is controlled by the valves . a. two or more primary bioreactors (101-104) adapted for fermentation of a gaseous substrate by one or more microorganisms to produce a fermentation broth; b. one or more secondary bioreactors adapted for fermentation of a gaseous substrate by one or more microorganisms to produce one or more products; and c. a central bleed line , and d. valves integrated with the inlet conduits of the primary and secondary bioreactors. wherein at least two of the primary bioreactors of the system (101-104) are capable of fluid communication with each other and fluid communication with at least one secondary bioreactor via the central bleed line , wherein fluid communication is controlled by the valves .
A refrigeration appliance comprising a housing , a liner , and an air duct assembly configured to define an air duct , wherein the liner is located inside the housing , a back wall of the liner being recessed toward the housing to form a groove ; and the air duct is located in the groove , wherein the groove comprises at least one curved side wall , two ends of the curved side wall being respectively connected to the back wall of the liner and a side wall of the groove , characterized in that the curved side wall is tangent to the back wall of the liner , and the curved side wall is tangent to the side wall of the groove . the liner is located inside the housing , a back wall of the liner being recessed toward the housing to form a groove ; and the air duct is located in the groove , wherein the groove comprises at least one curved side wall , two ends of the curved side wall being respectively connected to the back wall of the liner and a side wall of the groove , characterized in that the curved side wall is tangent to the back wall of the liner , and the curved side wall is tangent to the side wall of the groove .
A process for depositing a metal and/or a metal oxide on a glass substrate, the process comprising, providing a glass substrate having a surface, providing a precursor mixture comprising a metal sulfonate, at least partially atomizing the precursor mixture, and delivering the precursor mixture to the surface of the glass substrate, wherein the surface of the glass substrate is at a substrate temperature in the range 500 °C to 700 °C sufficient to effect decomposition of the metal sulfonate, and wherein the metal sulfonate is a species of formula M(O 3 SR) m , wherein M is a metal, R is CF 3 and m depends on the oxidation state of M. providing a glass substrate having a surface, providing a precursor mixture comprising a metal sulfonate, at least partially atomizing the precursor mixture, and delivering the precursor mixture to the surface of the glass substrate,
A method of manufacturing a contact lens, the method comprising manufacturing a rod of lens material, the rod containing a plurality of electronic components spaced apart along its length, separating the rod into at least one lens blank containing at least one of said electronic components , and machining the front and/or back surface of the lens blank to produce a contact lens containing the at least one electronic component , CHARACTERISED IN THAT : manufacturing the rod of lens material comprises producing a first length of rod including a first one of a plurality of electronic components and then producing a second length of the rod , said second length including a second one of the plurality of electronic components .
A vehicle security system for a vehicle , in particular a commercial vehicle , having a brake system , comprising a parking brake , wherein the parking brake can be switched between a driving position (FS) and a braking position (BS), wherein the vehicle security system is configured to secure the vehicle after an accident, and comprises a control unit , which is configured to determine an accident (U) of the vehicle and to switch the parking brake of the vehicle into the braking position (BS) when an accident (U) of the vehicle has been ascertained, characterized by a sensor unit for collecting and providing first vehicle data (DF1), which represent a rotary location (LD) of the vehicle , wherein the control unit is configured to carry out the ascertaining of the accident (U) based on the first vehicle data (DF1). wherein the vehicle security system is configured to secure the vehicle after an accident, and comprises a control unit , which is configured to determine an accident (U) of the vehicle and to switch the parking brake of the vehicle into the braking position (BS) when an accident (U) of the vehicle has been ascertained, characterized by a sensor unit for collecting and providing first vehicle data (DF1), which represent a rotary location (LD) of the vehicle , wherein the control unit is configured to carry out the ascertaining of the accident (U) based on the first vehicle data (DF1).
A cleave system for cleaving a semiconductor structure (S) having a top surface and a bottom surface generally parallel to the top surface, the cleave system comprising: a cleave arm that is moveable from a starting position to a raised position in which a cleave stress (F) is applied to the semiconductor structure; a suction member for grasping the semiconductor structure on the top surface of the semiconductor structure; a suction rod that extends through the cleave arm, the suction rod being connected to the suction member toward a first end of the suction rod; and a spring member that applies a cleave force to the semiconductor structure when the cleave arm is in the raised position. a suction member for grasping the semiconductor structure on the top surface of the semiconductor structure; a suction rod that extends through the cleave arm, the suction rod being connected to the suction member toward a first end of the suction rod; and a spring member that applies a cleave force to the semiconductor structure when the cleave arm is in the raised position.
Domestic appliance having the following features: a worktop having at least one recess for removing vapours, an extraction device for the vapours, at least one cover for covering the recess , at least one detection device , a hob having a heating device for heating cookware, the hob being arranged adjacently to the recess , and a control device for controlling the domestic appliance , characterised in that the cover can be placed on the worktop between the recess and the hob , the detection device being designed to detect a position of the cover and the control device being designed to control the domestic appliance depending on the position of the cover detected by the at least one detection device , the control device being designed to deactivate the heating device of the hob when the cover is not placed between the recess and the hob and/or to activate the heating device of the hob when the cover is placed between the recess and the hob . a worktop having at least one recess for removing vapours, an extraction device for the vapours, at least one cover for covering the recess , at least one detection device , a hob having a heating device for heating cookware, the hob being arranged adjacently to the recess , and a control device for controlling the domestic appliance , characterised in that the cover can be placed on the worktop between the recess and the hob , the detection device being designed to detect a position of the cover and the control device being designed to control the domestic appliance depending on the position of the cover detected by the at least one detection device , the control device being designed to deactivate the heating device of the hob when the cover is not placed between the recess and the hob and/or to activate the heating device of the hob when the cover is placed between the recess and the hob .
A continuous process for converting waste plastic into recycle for polyethylene polymerization comprising: (a) selecting waste plastics containing polyethylene and/or polypropylene; (b) passing the waste plastics from (a) through a pyrolysis reactor to thermally crack at least a portion of the polyolefin waste and produce a pyrolyzed effluent; (c) separating the pyrolyzed effluent into offgas, char and a pyrolysis oil and wax comprising a naphtha and diesel fraction and a heavy fraction; (d) passing the pyrolysis oil and wax from (c) to a refinery FCC unit; (e) recovering a liquid petroleum gas C 3 -C 5 olefin/paraffin mixture fraction from the FCC unit; (f) passing the liquid petroleum gas C 3 -C 5 olefin/paraffin mixture fraction to a refinery alkylation unit; (g) recovering a naphtha fraction from the alkylation unit; and (h) passing the naphtha fraction to a steam cracker for ethylene production. (a) selecting waste plastics containing polyethylene and/or polypropylene; (b) passing the waste plastics from (a) through a pyrolysis reactor to thermally crack at least a portion of the polyolefin waste and produce a pyrolyzed effluent; (c) separating the pyrolyzed effluent into offgas, char and a pyrolysis oil and wax comprising a naphtha and diesel fraction and a heavy fraction; (d) passing the pyrolysis oil and wax from (c) to a refinery FCC unit; (e) recovering a liquid petroleum gas C 3 -C 5 olefin/paraffin mixture fraction from the FCC unit; (f) passing the liquid petroleum gas C 3 -C 5 olefin/paraffin mixture fraction to a refinery alkylation unit; (g) recovering a naphtha fraction from the alkylation unit; and (h) passing the naphtha fraction to a steam cracker for ethylene production.
An inerting system comprising: a duct ; an injector assembly positioned within the duct, wherein the injector assembly includes a nozzle comprising: an outer gas flow path having a metering flow lip at an outlet thereof, the outer gas flow path adapted to be an air flow path; an inner gas flow path radially inward from the outer gas flow path, the inner gas flow path adapted to be an air flow path; a liquid flow path defined radially between the inner gas flow path and the outer gas flow path, the liquid flow path adapted to be a fuel flow path; a mixing zone for mixing air and liquid fuel is defined downstream of the nozzle; and a core conduit defined radially inward from the inner gas flow path; the system further comprising: a catalytic reactor positioned within the duct downstream from the injector assembly ; and at least one tank downstream from the catalytic reactor . a duct ; an injector assembly positioned within the duct, wherein the injector assembly includes a nozzle comprising: an outer gas flow path having a metering flow lip at an outlet thereof, the outer gas flow path adapted to be an air flow path; an inner gas flow path radially inward from the outer gas flow path, the inner gas flow path adapted to be an air flow path; a liquid flow path defined radially between the inner gas flow path and the outer gas flow path, the liquid flow path adapted to be a fuel flow path; a mixing zone for mixing air and liquid fuel is defined downstream of the nozzle; and a core conduit defined radially inward from the inner gas flow path; the system further comprising: a catalytic reactor positioned within the duct downstream from the injector assembly ; and at least one tank downstream from the catalytic reactor . an outer gas flow path having a metering flow lip at an outlet thereof, the outer gas flow path adapted to be an air flow path; an inner gas flow path radially inward from the outer gas flow path, the inner gas flow path adapted to be an air flow path; a liquid flow path defined radially between the inner gas flow path and the outer gas flow path, the liquid flow path adapted to be a fuel flow path; a mixing zone for mixing air and liquid fuel is defined downstream of the nozzle; and a core conduit defined radially inward from the inner gas flow path; the system further comprising: a catalytic reactor positioned within the duct downstream from the injector assembly ; and at least one tank downstream from the catalytic reactor . a catalytic reactor positioned within the duct downstream from the injector assembly ; and at least one tank downstream from the catalytic reactor .
An interconnectable port (0 - figure 5h) adapted to be at least partially placed in or surrounding an incision in a patient's body, wherein the interconnectable port comprises a first (1817-fig. 206') and second (1822-fig. 206') port adapted to be interconnected to form the interconnectable port, wherein the second port is disconnectable from the first port, wherein the first port is connected to a first portion of a flexible wall (1801-fig.206'), and the second port is connected to a second portion of the flexible wall, and wherein the flexible wall is adapted to form a chamber (C), and wherein the first port forms a closable wall port when disconnected from the second port, and wherein the chamber has a first volume when the first and second port is interconnected and a second volume when the second port is disconnected from the first port, wherein the second volume is larger than the first volume, and wherein the chamber is positioned external to the first and second port when the first and second port are interconnected, characterized in that the second port forms a closable body port by itself when the first port has been disconnected from the second port.
A lobaplatin compound crystal is characterized in two molecules of crystal water existing in a crystal structure.
A turbine of a turbo engine comprising a casing and a turbine nozzle stage , the turbine nozzle stage including an outer support shroud made of metal and secured to the casing , an inner support shroud made of metal, and a plurality of ring sectors made of ceramic-matrix composite material forming a crown and extending between the outer support shroud and the inner support shroud , the ring sectors defining an axial direction (D A ) and a radial direction (D R ), and each ring sector having an internal platform and an external platform which delimit a fluid (F) flowpath , and at least one blade extending between the external platform and the internal platform and fixed thereto, the external platform of each sector comprising a first portion equipped with an inner face which delimits the fluid (F) flowpath , and a second portion radially distant and external to the first portion , the second portion of the external platform being fixed to the outer support shroud , the internal platform comprising a first tab protruding along the radial direction (D R ) inwardly from an upstream axial end of the internal platform , and the inner support shroud comprising a shoulder protruding in the radial direction (D R ) outwardly, the shoulder being positioned upstream of the first tab and in abutment in the axial direction (D A ) against said first tab , characterized in that it comprises at least one reinforcement disposed along the radial direction (D R ) between the first portion and the second portion of the external platform , said at least one reinforcement comprising a first wall bearing against a radially outer face of the first portion of the external platform and a second wall bearing against a radially inner face of the second portion of the external platform , said at least one reinforcement being fixed to the outer support shroud with the second portion of the external platform .
A composition, which is a thermoplastic resin composition comprising - a fluororesin (A) which is a copolymer that contains a chlorotrifluoroethylene (CTFE) unit and a tetrafluoroethylene (TFE) unit and that has at least one functional group selected from a carbonyl group, an olefinic group and an amino group at a main chain terminal or side chain terminal of the polymer; and - a crosslinked fluoroelastomer (B) which is obtained by dynamic crosslinking treatment of a fluoroelastomer (b) along with a polyamine compound (c) having a thermal decomposition temperature of ≥ 210°C, whereby the thermal decomposition temperature is the temperature at the time point when the amount of weight reduction has reached 1% of the initial weight in thermal gravimetric analysis of the polyamine compound at a temperature-increasing rate of10°C/min, under dry air, and a crosslinking accelerator (d) in the presence of the fluororesin (A) under conditions for melting the fluororesin (A); and wherein a mass ratio ((A)/(b)) of the fluororesin (A) and the fluoroelastomer (b) is 45/55 to 66/34, and the crosslinking accelerator (d) is a quaternary ammonium salt. - a fluororesin (A) which is a copolymer that contains a chlorotrifluoroethylene (CTFE) unit and a tetrafluoroethylene (TFE) unit and that has at least one functional group selected from a carbonyl group, an olefinic group and an amino group at a main chain terminal or side chain terminal of the polymer; and - a crosslinked fluoroelastomer (B) which is obtained by dynamic crosslinking treatment of a fluoroelastomer (b) along with a polyamine compound (c) having a thermal decomposition temperature of ≥ 210°C,
A dishwasher in the form of a commercial utensil washer or dishwasher which is designed as a batch dishwasher and is realized as a hood-type dishwasher, wherein the dishwasher has a treatment chamber with at least one wash system which is designed as a recirculation system, wherein the treatment chamber is divided into a first treatment zone and at least one further, second treatment zone , wherein the first and at least the second treatment zone are arranged one above the other, and wherein the first treatment zone and the at least one further, second treatment zone are configured such that items of washware are treatable independently of one another and at least temporarily at the same time in the first and in the at least one second treatment zone , wherein the items of washware are treatable in the different treatment zones for different action times; wherein the first treatment zone has a first loading volume for cleaning washware, and the at least one second treatment zone has a second loading volume for cleaning washware, wherein the first loading volume is selected to be 2 to 4 times greater than the second loading volume.
An assembly for closing a tube, said assembly comprising a tube head that has a neck , and a cap , said assembly defining a guide path and a threading on the neck , and a thread portion on the cap allowing the cap to be positioned on the neck by cooperation with the guide path and the threading , said assembly comprising a first and a second stops for said thread portion , said stops being angularly spaced apart and defining a passage between the guide path and the threading , said assembly being configured to allow axial displacement of the thread portion through the passage with a non-return effect produced by at least one of said stops.
A method performed at a network element, the method comprising: receiving a packet that includes a fixed amount of packet metadata used to record a path as the packet traverses a network; identifying a hop number for the network element; identifying a unique identifier for the network element; identifying an existing path identifier from the packet metadata; determining a new path identifier at least in part using the existing path identifier, the hop number and the unique identifier; augmenting the packet metadata with the new path identifier to provide augmented metadata; and transmitting the packet with the augmented metadata to a next network element. receiving a packet that includes a fixed amount of packet metadata used to record a path as the packet traverses a network; identifying a hop number for the network element; identifying a unique identifier for the network element; identifying an existing path identifier from the packet metadata; determining a new path identifier at least in part using the existing path identifier, the hop number and the unique identifier; augmenting the packet metadata with the new path identifier to provide augmented metadata; and transmitting the packet with the augmented metadata to a next network element.
A hardware device for use in a cloud infrastructure , comprising: a first interface configured to receive an application message from an application supported by the cloud infrastructure ; at least one processor configured to digitally sign said application message; and a second interface configured to output the digitally signed application message, wherein said hardware device is configured to bind with a controller of a client infrastructure using a cryptographic key exchange between the hardware device and the controller of the client infrastructure, to thereby bind said hardware device to a security domain associated with said controller of the client infrastructure. a first interface configured to receive an application message from an application supported by the cloud infrastructure ; at least one processor configured to digitally sign said application message; and a second interface configured to output the digitally signed application message, wherein said hardware device is configured to bind with a controller of a client infrastructure using a cryptographic key exchange between the hardware device and the controller of the client infrastructure, to thereby bind said hardware device to a security domain associated with said controller of the client infrastructure.