mhurhangee/patent-ind-claim-en huggingface dataset:
A method for manufacturing a transistor device comprising a germanium based channel layer , said method comprising: - providing a gate structure on said germanium based channel layer provided on a substrate , said gate structure being provided between a germanium based source area and a germanium based drain area at opposite sides of said germanium based channel layer , said germanium based channel layer comprising more than 80% Germanium, and said germanium based source area and said germanium based drain area comprising more than 80% Germanium, - providing a capping layer on said germanium based source and said germanium based drain area , said capping layer comprising Si and Ge; - depositing a metal layer on said capping layer; - performing a temperature step, thereby transforming part of said capping layer into a metal germano- silicide portion which is not soluble in a predetermined etchant adapted for dissolving said metal; - selectively removing non-consumed metal from said substrate by means of said predetermined etchant; - providing a premetal dielectric layer ; wherein the thickness of the metal layer with respect to the thickness of said capping layer is adapted for preventing any exposure of the germanium based channel layer and germanium based source and drain areas to said predetermined etchant, such that an unreacted layer or portion of said capping layer protects the underlying germanium based source and drain areas from galvanic corrosion during said selective removing, wherein that the capping layer comprises a top layer adapted for reacting with the metal layer, the top layer comprising Si and Ge with a Ge concentration above 50%, and a bottom layer adapted to act as an etch-stop layer, the bottom layer comprising Si and Ge with a Ge concentration below 50% . - providing a gate structure on said germanium based channel layer provided on a substrate , said gate structure being provided between a germanium based source area and a germanium based drain area at opposite sides of said germanium based channel layer , said germanium based channel layer comprising more than 80% Germanium, and said germanium based source area and said germanium based drain area comprising more than 80% Germanium, - providing a capping layer on said germanium based source and said germanium based drain area , said capping layer comprising Si and Ge; - depositing a metal layer on said capping layer; - performing a temperature step, thereby transforming part of said capping layer into a metal germano- silicide portion which is not soluble in a predetermined etchant adapted for dissolving said metal; - selectively removing non-consumed metal from said substrate by means of said predetermined etchant; - providing a premetal dielectric layer ;
A display device comprising: a display panel ; a module cover configured to cover the display panel from a rear side; a glass cover including a cover part located at a rear of the module cover and a deco part extending in the plane of the cover part from the cover part and configured not to overlap the display panel and the module cover in a front-rear direction; an electric component plate provided at a rear surface of the cover part; a back cover configured to cover the electric component plate from a rear side; and a stand fixed to the back cover and located at a rear of the glass cover. a display panel ; a module cover configured to cover the display panel from a rear side; a glass cover including a cover part located at a rear of the module cover and a deco part extending in the plane of the cover part from the cover part and configured not to overlap the display panel and the module cover in a front-rear direction; an electric component plate provided at a rear surface of the cover part; a back cover configured to cover the electric component plate from a rear side; and a stand fixed to the back cover and located at a rear of the glass cover.
Refrigeration machine, in particular for a household refrigeration appliance, with a refrigerant circuit which comprises two intersections, a high pressure section and a low pressure section, wherein the two sections are connected to one another at the two intersections, wherein the first intersection is formed by a compressor and the second intersection is formed by a capillary , and wherein the high pressure section has an evacuation nozzle and a chamber , from which the evacuation nozzle exits downwards, characterised in that the capillary is engaged in the evacuation nozzle in a progressive orientation outwards from an inlet end of the capillary .
A system for dispensing a cooled nitrogen infused beverage, wherein the beverage is a non-carbonated aqueous liquid material that is a homogeneous liquid substantially free of solids having a flavor due to dissolved components; the system comprising: a beverage tank capable of being pressurized; a controlled pressurized supply of N 2 gas controlled by a regulator; a liquid/gas contactor membrane unit ; a diaphragm pump ; and a beverage faucet attached downstream to the liquid/gas contactor membrane unit wherein the system is arranged to feed regulated pressure nitrogen gas via supply lines to the liquid/gas contactor membrane unit and the diaphragm pump , and through a supply line having a secondary gas regulator to the beverage tank , the diaphragm pump is arranged via transfer lines to transfer beverage from the beverage tank to the liquid/gas contactor membrane unit , and the nitrogen feed supply line to the liquid/gas contactor membrane unit comprises a check valve preventing liquid flow from the liquid/gas contactor membrane unit into the pressurized gas supply line . wherein the beverage is a non-carbonated aqueous liquid material that is a homogeneous liquid substantially free of solids having a flavor due to dissolved components; the system comprising: a beverage tank capable of being pressurized; a controlled pressurized supply of N 2 gas controlled by a regulator; a liquid/gas contactor membrane unit ; a diaphragm pump ; and a beverage faucet attached downstream to the liquid/gas contactor membrane unit wherein the system is arranged to feed regulated pressure nitrogen gas via supply lines to the liquid/gas contactor membrane unit and the diaphragm pump , and through a supply line having a secondary gas regulator to the beverage tank , the diaphragm pump is arranged via transfer lines to transfer beverage from the beverage tank to the liquid/gas contactor membrane unit , and the nitrogen feed supply line to the liquid/gas contactor membrane unit comprises a check valve preventing liquid flow from the liquid/gas contactor membrane unit into the pressurized gas supply line . a beverage tank capable of being pressurized; a controlled pressurized supply of N 2 gas controlled by a regulator; a liquid/gas contactor membrane unit ; a diaphragm pump ; and a beverage faucet attached downstream to the liquid/gas contactor membrane unit wherein the system is arranged to feed regulated pressure nitrogen gas via supply lines to the liquid/gas contactor membrane unit and the diaphragm pump , and through a supply line having a secondary gas regulator to the beverage tank , the diaphragm pump is arranged via transfer lines to transfer beverage from the beverage tank to the liquid/gas contactor membrane unit , and the nitrogen feed supply line to the liquid/gas contactor membrane unit comprises a check valve preventing liquid flow from the liquid/gas contactor membrane unit into the pressurized gas supply line .
A tape printing device that is able to be operated by being handheld, comprising: a printing device main body that includes an operating portion and a displaying portion on a front surface ; and a magnet portion that is detachably mounted on a rear surface of the printing device main body, and is used for adsorbing the printing device main body to an object to be installed, characterized in that the magnet portion is detachably mounted on a pair of seat portions for flatly placing , the pair of seat portions serving as a pedestal for attaching the magnet portion . a printing device main body that includes an operating portion and a displaying portion on a front surface ; and a magnet portion that is detachably mounted on a rear surface of the printing device main body, and is used for adsorbing the printing device main body to an object to be installed, characterized in that the magnet portion is detachably mounted on a pair of seat portions for flatly placing , the pair of seat portions serving as a pedestal for attaching the magnet portion .
A flip-top dispensing closure comprising a body , the body comprising a base connectable to a container neck , and a lid hingedly connected to the base so as to be movable between a closed position and an open position, the closure comprising a dispensing member , the closure further comprising a tamper-indicating member , in which the tamper-indicating member activates either: upon first opening of the lid ; or if the base is removed from the neck , characterised in that an irreversible unitary tamper-evident break event occurs if first opening of the lid is the premier opening event and alternatively the said unitary irreversible tamper-evident break event occurs if removing the base from the neck is the premier opening event, in that the tamper-evident member is a separate element and in that the tamper-evident member fits between the body and the dispensing member .
An assembly of scissor arms for a scissor lifting mechanism of the work platform of an aerial work platform, comprising a first scissor arm and a second scissor arm mounted together pivotally around a shaft crossing both arms, wherein: - each of the arms is formed with a tubular beam which has: ∘ a first local reinforcement plate (80; 82) welded on the outer surface of a first side of the beam; and ∘ a second local reinforcement plate (81; 82) welded on the outer surface of a second side of the beam which is opposite to the first side of the beam; - each of the arms has: ∘ a first shaft passage hole (101; 103) made in the first reinforcement plate and the first side of the beam, and ∘ a second shaft passage hole (102; 104) made in the second reinforcement plate and the second side of the beam; wherein: ∘ the shaft is circumferentially supported in the first passage hole both by the beam and the first reinforcement plate; ∘ the shaft is circumferentially supported in the second passage hole both by the beam and the second reinforcement plate; and ∘ the shaft is free of any support inside the beam between the first passage hole and the second passage hole. - each of the arms is formed with a tubular beam which has: ∘ a first local reinforcement plate (80; 82) welded on the outer surface of a first side of the beam; and ∘ a second local reinforcement plate (81; 82) welded on the outer surface of a second side of the beam which is opposite to the first side of the beam; ∘ a first local reinforcement plate (80; 82) welded on the outer surface of a first side of the beam; and ∘ a second local reinforcement plate (81; 82) welded on the outer surface of a second side of the beam which is opposite to the first side of the beam; - each of the arms has: ∘ a first shaft passage hole (101; 103) made in the first reinforcement plate and the first side of the beam, and ∘ a second shaft passage hole (102; 104) made in the second reinforcement plate and the second side of the beam; wherein: ∘ the shaft is circumferentially supported in the first passage hole both by the beam and the first reinforcement plate; ∘ the shaft is circumferentially supported in the second passage hole both by the beam and the second reinforcement plate; and ∘ the shaft is free of any support inside the beam between the first passage hole and the second passage hole. ∘ a first shaft passage hole (101; 103) made in the first reinforcement plate and the first side of the beam, and ∘ a second shaft passage hole (102; 104) made in the second reinforcement plate and the second side of the beam; ∘ the shaft is circumferentially supported in the first passage hole both by the beam and the first reinforcement plate; ∘ the shaft is circumferentially supported in the second passage hole both by the beam and the second reinforcement plate; and ∘ the shaft is free of any support inside the beam between the first passage hole and the second passage hole.
A melting device having a feed shaft and a tilting device , by means of which a furnace vessel with a furnace vessel cover is tiltable about a tilt axis into different tilt positions, where the furnace vessel cover has a charging opening , to which a flat sealing element is connected on each of two sides, such that the outside boundary of said sealing elements and the outside boundary of the charging opening define a furnace vessel sealing region with a sealing surface which surrounds the charging opening , characterized in that said furnace vessel sealing region is realized as a convex, cylinder-surface-portion-shaped surface, and in that a further sealing element is also connected on each of two sides of the opening of the feed shaft facing the charging opening in such a manner that the outside boundary of said further sealing elements and the outside boundary of said opening of the feed shaft define a shaft sealing region with a complementary concave, cylinder-surface-portion-shaped sealing surface, wherein portions of the sealing surfaces of the two sealing regions are located opposite one another in each case in the different tilt positions of the tilting device . characterized in that said furnace vessel sealing region is realized as a convex, cylinder-surface-portion-shaped surface, and in that a further sealing element is also connected on each of two sides of the opening of the feed shaft facing the charging opening in such a manner that the outside boundary of said further sealing elements and the outside boundary of said opening of the feed shaft define a shaft sealing region with a complementary concave, cylinder-surface-portion-shaped sealing surface, wherein portions of the sealing surfaces of the two sealing regions are located opposite one another in each case in the different tilt positions of the tilting device .
A process transmitter comprising: an isolation unit configured to engage a process and including a medium ; a process sensor configured to produce a process signal that is a function of a parameter of the process that is communicated through the medium ; a compensation circuit configured to compensate the process signal for a response time of the isolation unit , and output a compensated process signal, wherein the compensation is a function of a hydraulic impedance of the medium; and an output circuit configured to receive the compensated process signal and produce a transmitter output as a function of the compensated process signal. an isolation unit configured to engage a process and including a medium ; a process sensor configured to produce a process signal that is a function of a parameter of the process that is communicated through the medium ; a compensation circuit configured to compensate the process signal for a response time of the isolation unit , and output a compensated process signal, wherein the compensation is a function of a hydraulic impedance of the medium; and an output circuit configured to receive the compensated process signal and produce a transmitter output as a function of the compensated process signal.
An electronic device comprising: a housing; and a patterned region formed on at least part of a surface of the housing, wherein the patterned region includes a first edge, a second edge, and a first pattern formed between the first edge and the second edge, wherein the first pattern includes a first ridge, a first valley and a second valley located closer to an interior space of the housing than the first ridge, and first inclined surfaces extending from the first ridge to the first valley and the second valley, characterized in that , the first ridge has a first color, and wherein the first inclined surfaces have a second color different from the first color, wherein the housing includes: a first film formed on the first ridge, and a second film formed on the first inclined surfaces, wherein the first film includes a plurality of pores formed on the surface thereof, and a first dye related to the first color has been received in the plurality of pores of the first film, and wherein the second film includes a plurality of pores formed on the surface thereof, and a second dye related to the second color has been received in the plurality of pores of the second film. a housing; and a patterned region formed on at least part of a surface of the housing, wherein the patterned region includes a first edge, a second edge, and a first pattern formed between the first edge and the second edge, wherein the first pattern includes a first ridge, a first valley and a second valley located closer to an interior space of the housing than the first ridge, and first inclined surfaces extending from the first ridge to the first valley and the second valley, characterized in that , the first ridge has a first color, and wherein the first inclined surfaces have a second color different from the first color, wherein the housing includes: a first film formed on the first ridge, and a second film formed on the first inclined surfaces, wherein the first film includes a plurality of pores formed on the surface thereof, and a first dye related to the first color has been received in the plurality of pores of the first film, and wherein the second film includes a plurality of pores formed on the surface thereof, and a second dye related to the second color has been received in the plurality of pores of the second film. a first film formed on the first ridge, and a second film formed on the first inclined surfaces, wherein the first film includes a plurality of pores formed on the surface thereof, and a first dye related to the first color has been received in the plurality of pores of the first film, and wherein the second film includes a plurality of pores formed on the surface thereof, and a second dye related to the second color has been received in the plurality of pores of the second film.
An electric motor comprising: a stator ; a rotor having a tubular shape and disposed radially outside of the stator ; and a fan mounting portion located on one side of the stator in an axial direction and mounted to the rotor , wherein an end face of the fan mounting portion has a contact region that contacts a mounting surface of a fan , and a noncontact region that does not contact the fan , wherein the contact region is located radially inside of the rotor and also radially inside of the noncontact region , and the contact region is made of a metal material and the noncontact region is made of a resin material. a stator ; a rotor having a tubular shape and disposed radially outside of the stator ; and a fan mounting portion located on one side of the stator in an axial direction and mounted to the rotor , wherein an end face of the fan mounting portion has a contact region that contacts a mounting surface of a fan , and a noncontact region that does not contact the fan , wherein the contact region is located radially inside of the rotor and also radially inside of the noncontact region , and the contact region is made of a metal material and the noncontact region is made of a resin material.
A surgical instrument, comprising: a first jaw comprising a distal jaw end; a second jaw movable relative to said first jaw to capture the tissue of a patient between said first jaw and said second jaw; and a firing member movable toward said distal jaw end during a firing stroke, wherein said firing member comprises: a coupling portion comprising a lateral recess and a mounting tab ; and a firing bar comprising a first layer mounted to said coupling portion in said lateral recess via first joining means and a second layer : characterised in that the second layer is attached to said mounting tab via second joining means , the first joining means being located distally with respect to the second joining means. a first jaw comprising a distal jaw end; a second jaw movable relative to said first jaw to capture the tissue of a patient between said first jaw and said second jaw; and a firing member movable toward said distal jaw end during a firing stroke, wherein said firing member comprises: a coupling portion comprising a lateral recess and a mounting tab ; and a firing bar comprising a first layer mounted to said coupling portion in said lateral recess via first joining means and a second layer : characterised in that the second layer is attached to said mounting tab via second joining means , the first joining means being located distally with respect to the second joining means. a coupling portion comprising a lateral recess and a mounting tab ; and a firing bar comprising a first layer mounted to said coupling portion in said lateral recess via first joining means and a second layer : characterised in that the second layer is attached to said mounting tab via second joining means , the first joining means being located distally with respect to the second joining means.
A method of low-temperature cooking of food by means of the following steps: - introducing the food to be cooked into a cooking chamber, wherein the food is detected and wherein cooking time-relevant parameters, in particular a geometric shape of the food, are detected by means of a camera and an image evaluation module or are queried by means of an operator interface; - calculating, by a control module, a temperature profile of a cooking process including a cooking phase and a pasteurization phase on the basis of the geometric shape, wherein a predefined maximum duration of the cooking phase is observed, which is a maximum of four hours, and wherein the cooking chamber temperature is lowered on average to the target core temperature during the pasteurization phase; - determining the duration of the cooking phase using the following formula: t = a * ln GT − T 0 * bx 2 where a is an empirically determined factor of cooking time per temperature difference and surface area, GT is the cooking chamber temperature, T 0 is an initial temperature, b is an empirically determined factor that is representative of a change in shape of the food to be cooked during the cooking process, and x is a characteristic length of the food; - calculating, by the control module, a minimum duration of the pasteurization phase as a function of the food to be cooked and of the core temperature of the ready-cooked food; - cooking the food using the calculated temperature profile; - informing an operator that the cooking process has been completed. - introducing the food to be cooked into a cooking chamber, wherein the food is detected and wherein cooking time-relevant parameters, in particular a geometric shape of the food, are detected by means of a camera and an image evaluation module or are queried by means of an operator interface; - calculating, by a control module, a temperature profile of a cooking process including a cooking phase and a pasteurization phase on the basis of the geometric shape, wherein a predefined maximum duration of the cooking phase is observed, which is a maximum of four hours, and wherein the cooking chamber temperature is lowered on average to the target core temperature during the pasteurization phase; - determining the duration of the cooking phase using the following formula: t = a * ln GT − T 0 * bx 2 where a is an empirically determined factor of cooking time per temperature difference and surface area, GT is the cooking chamber temperature, T 0 is an initial temperature, b is an empirically determined factor that is representative of a change in shape of the food to be cooked during the cooking process, and x is a characteristic length of the food; - calculating, by the control module, a minimum duration of the pasteurization phase as a function of the food to be cooked and of the core temperature of the ready-cooked food; - cooking the food using the calculated temperature profile; - informing an operator that the cooking process has been completed.