mhurhangee/patent-ind-claim-en huggingface dataset:
A body of a road vehicle for transporting goods comprising two vertical sides , a roof , and a floor assembled together and partially delimiting an interior cargo space, and a reinforcing rear frame fastened at least on the sides , vertical uprights of said rear frame and said sides forming sidewalls of the body, said body further comprising: - two rear doors for closing an access to said interior cargo space each movable in rotation on the rear frame between a closed position and an extreme open position in which it extends forwards while being transversely spaced apart from one of the sides , - two deflectors each mounted on one of the rear doors , and - at least one system for coupling each deflector to the associated rear door for movably mounting said deflector between a folded position against said rear door and a deployed position to extend one of the sidewalls of the body rearwards, each coupling system comprising at least one first connecting rod hinged to said deflector and to said rear door, and one second connecting rod hinged to said deflector and to said rear door or to said first connecting rod, - characterised in that said first and second connecting rods of each coupling system are hinged so as to obtain, in the deployed position of the associated deflector and during the movement of opening the associated rear door towards its extreme open position, a displacement of said deflector relative to the associated rear door towards its folded position by the effect of the displacement, forwards along one of the sidewalls of the body, of a contact between said deflector and said sidewall. - two rear doors for closing an access to said interior cargo space each movable in rotation on the rear frame between a closed position and an extreme open position in which it extends forwards while being transversely spaced apart from one of the sides , - two deflectors each mounted on one of the rear doors , and - at least one system for coupling each deflector to the associated rear door for movably mounting said deflector between a folded position against said rear door and a deployed position to extend one of the sidewalls of the body rearwards, each coupling system comprising at least one first connecting rod hinged to said deflector and to said rear door, and one second connecting rod hinged to said deflector and to said rear door or to said first connecting rod, - characterised in that said first and second connecting rods of each coupling system are hinged so as to obtain, in the deployed position of the associated deflector and during the movement of opening the associated rear door towards its extreme open position, a displacement of said deflector relative to the associated rear door towards its folded position by the effect of the displacement, forwards along one of the sidewalls of the body, of a contact between said deflector and said sidewall.
A semi-trailer with a skid plate , said skid plate comprising a pin extending from the bottom of the skid plate , the pin to be mounted in a fifth wheel of a tractor coupled to the semi-trailer, wherein reinforcements in a form of ribs and embossments are formed in an area of a monolithic, bent surface of the skid plate , characterized in that the skid plate is formed by an area of appropriately contoured surface, preferably made of steel, so as to form circumferential ribs running substantially symmetrically with respect to a longitudinal direction of the semi-trailer and on both sides of a central and substantially flat surface, and a central longitudinal embossment made in the central and substantially flat surface, wherein the longitudinal embossment runs exactly through the centre of the surface and constitutes the symmetry axis for the ribs , said embossment running substantially parallel to the longitudinal direction of the semi-trailer through the centre of the surface and in an area of the pin , so that in the place where the pin is located, the longitudinal embossment is flattened.
A method for manufacturing a semiconductor structure, comprising: forming a conductive pad on a semiconductor die; forming a seed layer over the conductive pad ; defining a first mask layer over the seed layer ; and forming a silver alloy bump body in the first mask layer , the silver alloy being an Ag 1-x Au x alloy, wherein x is in a range of from 0.01 to 0.1, comprising: preparing a first cyanide-based bath; controlling a pH value of the first cyanide-based bath to be within a range of from 6.5 to 7.0; immersing the semiconductor die into the first cyanide-based bath; applying an electroplating current density of from 0.15 A/dm 2 to 0.50 A/dm 2 to the semiconductor die; and controlling a temperature of the first cyanide-based bath within a range of from 40 to 50 degrees Celsius, wherein the first cyanide-based bath includes 5 to 15 g/L of KAg(CN) 2 and salts thereof, as well as 5 to 15 g/L of KAu(CN) 2 and salts thereof and wherein the first cyanide-based bath constitutes 10 wt% to 60 wt% of KAu(CN) 2 in the total salts added therein with the balance being KAg(CN) 2 salts. forming a conductive pad on a semiconductor die; forming a seed layer over the conductive pad ; defining a first mask layer over the seed layer ; and forming a silver alloy bump body in the first mask layer , the silver alloy being an Ag 1-x Au x alloy, wherein x is in a range of from 0.01 to 0.1, comprising: preparing a first cyanide-based bath; controlling a pH value of the first cyanide-based bath to be within a range of from 6.5 to 7.0; immersing the semiconductor die into the first cyanide-based bath; applying an electroplating current density of from 0.15 A/dm 2 to 0.50 A/dm 2 to the semiconductor die; and controlling a temperature of the first cyanide-based bath within a range of from 40 to 50 degrees Celsius, wherein the first cyanide-based bath includes 5 to 15 g/L of KAg(CN) 2 and salts thereof, as well as 5 to 15 g/L of KAu(CN) 2 and salts thereof and wherein the first cyanide-based bath constitutes 10 wt% to 60 wt% of KAu(CN) 2 in the total salts added therein with the balance being KAg(CN) 2 salts. preparing a first cyanide-based bath; controlling a pH value of the first cyanide-based bath to be within a range of from 6.5 to 7.0; immersing the semiconductor die into the first cyanide-based bath; applying an electroplating current density of from 0.15 A/dm 2 to 0.50 A/dm 2 to the semiconductor die; and controlling a temperature of the first cyanide-based bath within a range of from 40 to 50 degrees Celsius, wherein the first cyanide-based bath includes 5 to 15 g/L of KAg(CN) 2 and salts thereof, as well as 5 to 15 g/L of KAu(CN) 2 and salts thereof and wherein the first cyanide-based bath constitutes 10 wt% to 60 wt% of KAu(CN) 2 in the total salts added therein with the balance being KAg(CN) 2 salts.
A capability aggregation and open system, characterized by comprising a capability open module, a determination module, a control module and a response cache module, wherein the capability refers to that multiple Application Programming Interfaces, APIs, are related when implementing the same one function and wherein said multiple APIs being related when implementing the same one function is collectively referred to as one capability; wherein, the capability open module is configured to receive a capability call request transmitted by a third party, and receive a capability call response from the control module and forward the capability call response to the third party; the determination module is configured to determine the received capability call request according to a configured rule, and to determine whether to acquire the capability call response message from the response cache module; the control module is configured to implement module call control, comprising: calling the determination module, and when response data of the capability call request have been cached, calling the response cache module to acquire cached corresponding capability call response, and returning the capability call response acquired by calling the response cache module module to the capability open module; and the response cache module is configured to acquire the cached corresponding capability call response or cache a capability call response that meets a cache condition according to the call of the control module; wherein, the system further comprises a capability call processing module, and the control module implementing module call control further comprises: when the response data of the capability call request have not been cached and needs to be further processed, calling the capability call processing module; the capability call processing module is configured to implement a capability call processing according to the call of the control module, so as to call a corresponding capability provision device according to a current capability call request to be processed transmitted by the third party, and receive the response data from the capability provision device; wherein, the capability call processing module comprises a message queue management sub-module, a capability access sub-module, and one or more message queues, wherein, the message queue management sub-module is configured to cache, according to the configuration rule, the capability call request into the message queue and extract a capability call request to be processed from a corresponding message queue according to the call of the control module; and the capability access sub-module is configured to adapt and call the corresponding capability provision device according to the current capability call request to be processed.
A screw comprising: a head ; a shank defining an axis (Z) and including a main body connecting said head and a tip portion connecting an end of said main body opposite to said head ; a thread helically extending around said shank to said tip portion ; characterized by two chip discharge grooves indented into said shank , said chip discharge grooves being nonparallel and each inclined at an angle of between 5 and 35 degrees relative to the axis (Z); wherein orthogonal projections of said chip discharge grooves , which are projected onto a plane extending along the axis (Z), overlap each other; wherein said thread and said chip discharge grooves are inclined upward toward a same side of said shank ; wherein said two chip discharge grooves are disposed on a same side relative to the axis (Z) of said shank ; and wherein one of said two of said chip discharge grooves is inclined at an angle of 5 degrees, and the other one of said two chip discharge grooves is inclined at an angle of 25 degrees. a head ; a shank defining an axis (Z) and including a main body connecting said head and a tip portion connecting an end of said main body opposite to said head ; a thread helically extending around said shank to said tip portion ; two chip discharge grooves indented into said shank , said chip discharge grooves being nonparallel and each inclined at an angle of between 5 and 35 degrees relative to the axis (Z); wherein orthogonal projections of said chip discharge grooves , which are projected onto a plane extending along the axis (Z), overlap each other; wherein said thread and said chip discharge grooves are inclined upward toward a same side of said shank ; wherein said two chip discharge grooves are disposed on a same side relative to the axis (Z) of said shank ; and wherein one of said two of said chip discharge grooves is inclined at an angle of 5 degrees, and the other one of said two chip discharge grooves is inclined at an angle of 25 degrees.
A cabinet for electronic equipment comprising external and internal walls, an air duct , and a heat exchanger , wherein an external wall of the air duct is directly formed by the external walls of the cabinet, an internal wall of the air duct is formed by at least four vertical guides and by surfaces of the electronic equipment , the heat exchanger is located in the air duct , dividing it into two sections with different temperatures, while the electronic equipment is mounted on the vertical guides that ensure air flow through the air duct sections via the heat exchanger by utilizing built-in fans of the electronic equipment , characterized in that the heat exchanger connects the external and internal walls of the cabinet, and the heat exchanger is located in a middle part of a U-shaped air duct . an external wall of the air duct is directly formed by the external walls of the cabinet, an internal wall of the air duct is formed by at least four vertical guides and by surfaces of the electronic equipment , the heat exchanger is located in the air duct , dividing it into two sections with different temperatures, while the electronic equipment is mounted on the vertical guides that ensure air flow through the air duct sections via the heat exchanger by utilizing built-in fans of the electronic equipment , characterized in that the heat exchanger connects the external and internal walls of the cabinet, and the heat exchanger is located in a middle part of a U-shaped air duct .
A method of controlling spider mites, the method comprising generating nanobubbles in water by pressurized dissolution to generate nanobubble water, and applying the nanobubble water to a plant which is a fruit vegetable. generating nanobubbles in water by pressurized dissolution to generate nanobubble water, and applying the nanobubble water to a plant which is a fruit vegetable.
A resource configuration method, comprising: configuring (S201), by a network device for a terminal device, a plurality of resources used to transmit uplink control information, UCI; configuring (S201), by the network device, same first indication information for all of the plurality of resources; and sending (S202), by the network device, the first indication information to the terminal device, wherein the first indication information indicates the terminal device to multiplex first UCI and second UCI, and a type of the first UCI is different from a type of the second UCI, wherein the method further comprises: receiving (S204), by the network device on a third resource, the first UCI and the second UCI that are multiplexed, wherein the third resource is a resource in the plurality of resources that are configured by the network device for the terminal device and that are used to transmit the UCI. configuring (S201), by a network device for a terminal device, a plurality of resources used to transmit uplink control information, UCI; configuring (S201), by the network device, same first indication information for all of the plurality of resources; and sending (S202), by the network device, the first indication information to the terminal device, wherein the first indication information indicates the terminal device to multiplex first UCI and second UCI, and a type of the first UCI is different from a type of the second UCI, wherein the method further comprises: receiving (S204), by the network device on a third resource, the first UCI and the second UCI that are multiplexed, wherein the third resource is a resource in the plurality of resources that are configured by the network device for the terminal device and that are used to transmit the UCI.
A smelting vessel for producing molten metal including a refractory lined hearth that in use is in contact with molten slag or molten metal in the vessel , with the hearth including a plurality of heat pipes positioned in a refractory lining of at least a part of the hearth for cooling at least a part of the refractory lining, with at least one of the heat pipes being adapted to contain: a liquid phase of a heat transfer fluid, typically water, in a lower section of the heat pipe ; a vapor phase of the heat transfer fluid, typically steam , in an upper section of the heat pipe ; and a vent includes, a snorkel extending into the heat pipe , the snorkel comprising: an open end , that is inside the heat pipe and adapted to communicate with the vapour phase, and a closed end , that is outside the heat pipe , wherein, the closed end of the snorkel is configured to open when the vapour pressure or the temperature in the heat pipe exceeds a predetermined threshold pressure or temperature, to allow the vapour phase and not the liquid phase to escape from the heat pipe to reduce the pressure or the temperature within the heat pipe . a liquid phase of a heat transfer fluid, typically water, in a lower section of the heat pipe ; a vapor phase of the heat transfer fluid, typically steam , in an upper section of the heat pipe ; and a vent includes, a snorkel extending into the heat pipe , the snorkel comprising: an open end , that is inside the heat pipe and adapted to communicate with the vapour phase, and a closed end , that is outside the heat pipe , wherein, the closed end of the snorkel is configured to open when the vapour pressure or the temperature in the heat pipe exceeds a predetermined threshold pressure or temperature, to allow the vapour phase and not the liquid phase to escape from the heat pipe to reduce the pressure or the temperature within the heat pipe .
A method comprising: receiving , at a connection manager from a client device , a request to establish a connection with a server , wherein the request indicates a user of the client device ; authenticating , at the connection manager , using a public key corresponding to the client device , the user ; and determining , at the connection manager , whether the user has privileges to access the server ; characterized in that the method further comprises: after determining that the user is authorized to access the server , retrieving , at the connection manager , a private key for authenticating the user with the server ; and establishing , at the connection manager , using the private key for authenticating the user with the server , a connection to the server . receiving , at a connection manager from a client device , a request to establish a connection with a server , wherein the request indicates a user of the client device ; authenticating , at the connection manager , using a public key corresponding to the client device , the user ; and determining , at the connection manager , whether the user has privileges to access the server ; after determining that the user is authorized to access the server , retrieving , at the connection manager , a private key for authenticating the user with the server ; and establishing , at the connection manager , using the private key for authenticating the user with the server , a connection to the server .
A method for transmitting a signal, the method comprising: concatenating a first signal from a first device operating in spatial multiplexing transmission with a second signal from a second device operating without spatial multiplexing transmission to generate a concatenated signal in a non-linearly superpositioned constellation, in which the portion of the constellation corresponding to the first signal is symmetrical about each of the real and imaginary axes; processing the concatenated signal according to transmission processing of the second device , to generate a processed signal, wherein the processing the concatenated signal according to the transmission processing of the second device comprises applying a space-frequency block code, SFBC, to the concatenated signal; and transmitting the processed signal, wherein the transmission takes place in a two-antenna system or in a four-antenna system. concatenating a first signal from a first device operating in spatial multiplexing transmission with a second signal from a second device operating without spatial multiplexing transmission to generate a concatenated signal in a non-linearly superpositioned constellation, in which the portion of the constellation corresponding to the first signal is symmetrical about each of the real and imaginary axes; processing the concatenated signal according to transmission processing of the second device , to generate a processed signal, wherein the processing the concatenated signal according to the transmission processing of the second device comprises applying a space-frequency block code, SFBC, to the concatenated signal; and transmitting the processed signal, wherein the transmission takes place in a two-antenna system or in a four-antenna system.
A mobile robot comprising a leg assembly having a leg and having a torso portion , the leg comprising an upper leg segment and a lower leg segment connected to each other by a center joint , the upper leg segment and the lower leg segment being extendable toward each other by an extension drive via the center joint , wherein the upper leg segment is mounted in a torso joint on the torso portion and can be swung in a running direction relative to the torso portion by means of a leg swing drive , wherein the torso joint can be displaced relative to the torso portion by means of a leg retraction drive , wherein the upper leg segment can be shortened relative to the torso joint by means of a spring-damper unit , and wherein the leg has a foot extending in a plane on the lower leg segment ; wherein the mobile robot comprises at least two of the leg assemblies, and wherein the legs of the leg assemblies jointly support a central body comprising the torso portions of the leg assemblies.
A method for monitoring patient's condition after a stroke, comprising: - recording head's electrical bioimpedance data to form an impedance data set Z(x, y, t, f); - recording cardio-plethysmographic data comprising ECG(t) and FPG(t) cardio-plethysmographic data sets; - the impedance and cardio-plethysmographic data sets are synchronized according to an electrocardiogram (1.5), resulting in an array of synchronized data (1.2.4), where processing and analysis algorithms are applied to the array of synchronized data (1.2.4) - applying data processing and analysis algorithms to an array of data, - presenting the processed and analyzed data by data display means (1.4), and if necessary, transmitting the presented processed and analyzed data for further processing or presentation. characterized in that - spatial distribution of brain parameters is analyzed for determining temporal and spatial distribution characteristics of the bioimpedance by using an electric current of different frequencies, where - strength of the impedance measurement signal is controlled by a supply current depending on the frequency of the supplied current and amplification of the signal. - recording head's electrical bioimpedance data to form an impedance data set Z(x, y, t, f); - recording cardio-plethysmographic data comprising ECG(t) and FPG(t) cardio-plethysmographic data sets; - the impedance and cardio-plethysmographic data sets are synchronized according to an electrocardiogram (1.5), resulting in an array of synchronized data (1.2.4), where processing and analysis algorithms are applied to the array of synchronized data (1.2.4) - applying data processing and analysis algorithms to an array of data, - presenting the processed and analyzed data by data display means (1.4), and if necessary, transmitting the presented processed and analyzed data for further processing or presentation. - spatial distribution of brain parameters is analyzed for determining temporal and spatial distribution characteristics of the bioimpedance by using an electric current of different frequencies, where - strength of the impedance measurement signal is controlled by a supply current depending on the frequency of the supplied current and amplification of the signal.