mhurhangee/patent-ind-claim-en huggingface dataset:
A secondary radar comprising an antenna having a radiation pattern forming a sum channel, designated SUM, a radiation pattern forming a difference channel, designated DIFF, and a pattern forming a control channel, designated CONT, a first transmission and reception chain being associated with the SUM channel and a second transmission and reception chain being associated with the CONT channel, a reception chain (4") being associated with the DIFF channel, characterised in that : - each of said transmission and reception chains is able to transmit and to receive simultaneously, the transmission chain comprising a filtering operation that filters signals transmitted at 1090 MHz and the reception chain comprising a filtering operation that filters signals transmitted at 1030 MHz, and said reception chain (4") associated with the DIFF channel comprising a filtering operation that filter signals transmitted at 1030 MHz, in such a way that said chains operate independently of one another, the reception-side signal level remaining unchanged during a synchronous interrogation transmission; - the processing means comprise matching reception-side frequency bands to the characteristics of each of the transaction protocols used; - said reception chains of the SUM, DIFF and CONT channels, respectively, are able to simultaneously listen in synchronous and asynchronous mode for signals received from targets via the SUM, DIFF and CONT patterns, respectively, said operations of listening in synchronous and asynchronous mode being independent of each other, the reception-side signal level remaining unchanged during a synchronous interrogation transmission. - each of said transmission and reception chains is able to transmit and to receive simultaneously, the transmission chain comprising a filtering operation that filters signals transmitted at 1090 MHz and the reception chain comprising a filtering operation that filters signals transmitted at 1030 MHz, and said reception chain (4") associated with the DIFF channel comprising a filtering operation that filter signals transmitted at 1030 MHz, in such a way that said chains operate independently of one another, the reception-side signal level remaining unchanged during a synchronous interrogation transmission; - the processing means comprise matching reception-side frequency bands to the characteristics of each of the transaction protocols used; - said reception chains of the SUM, DIFF and CONT channels, respectively, are able to simultaneously listen in synchronous and asynchronous mode for signals received from targets via the SUM, DIFF and CONT patterns, respectively, said operations of listening in synchronous and asynchronous mode being independent of each other, the reception-side signal level remaining unchanged during a synchronous interrogation transmission.
A method for foam molding a flat glass fiber-reinforced resin comprising the step of: adding a foaming agent to a flat glass fiber resin composition containing a resin and flat glass fibers to perform an injection foam molding, wherein said resin is nylon 6, wherein said foaming agent is a supercritical fluid, wherein said flat glass fiber resin composition contains said flat glass fibers in an amount of from 3 to 15 wt% relative to said flat glass fiber resin composition, and wherein a filament cross section of said flat glass fibers has an aspect ratio (major axis/minor axis) of from 1.5 to 10. adding a foaming agent to a flat glass fiber resin composition containing a resin and flat glass fibers to perform an injection foam molding, wherein said resin is nylon 6, wherein said foaming agent is a supercritical fluid, wherein said flat glass fiber resin composition contains said flat glass fibers in an amount of from 3 to 15 wt% relative to said flat glass fiber resin composition, and wherein a filament cross section of said flat glass fibers has an aspect ratio (major axis/minor axis) of from 1.5 to 10.
Cogeneration plant , in particular a fuel cell system, for providing electric power and heat, wherein the heat is able to be supplied to at least one heat- consuming process, having - an electrical energy source , in particular a fuel cell stack containing at least one fuel cell , and - an inverter arrangement , connected downstream of the energy source , for connection to at least one electrical consumer , in particular a power grid, wherein the inverter arrangement has a first, input-side DC chopper and an output-side inverter , and possibly a link circuit , wherein a controlled resistive load is connected in parallel with the energy source , characterized in that the inverter arrangement has first control electronics for controlling an electric power, a voltage and/or a current of the energy source and that are assigned to the first DC chopper . - an electrical energy source , in particular a fuel cell stack containing at least one fuel cell , and - an inverter arrangement , connected downstream of the energy source , for connection to at least one electrical consumer , in particular a power grid, wherein the inverter arrangement has a first, input-side DC chopper and an output-side inverter , and possibly a link circuit ,
A system for treating a tissue site, comprising: a dressing assembly comprising: a foam dressing bolster having a first side and a second, inward-facing side , a comfort layer coupled to the second, inward-facing side of the dressing bolster, wherein the comfort layer has a first side and a second, inward-facing side and at least a portion of the second side of the comfort layer is configured to be directly against the tissue site, and a sealing ring coupled to the second, inward-facing side of the comfort layer ; a sealing member for covering the dressing bolster and for creating a sealed space; and a reduced-pressure source for fluidly coupling to the sealed space. a foam dressing bolster having a first side and a second, inward-facing side , a comfort layer coupled to the second, inward-facing side of the dressing bolster, wherein the comfort layer has a first side and a second, inward-facing side and at least a portion of the second side of the comfort layer is configured to be directly against the tissue site, and a sealing ring coupled to the second, inward-facing side of the comfort layer ; a sealing member for covering the dressing bolster and for creating a sealed space; and a reduced-pressure source for fluidly coupling to the sealed space.
A tool for use with an electromagnetic induction coil and an electronic oscillator for stress relieving a turbocharger turbine wheel longitudinally welded to an end region of a hardened rotor shaft , the shaft having a journal bearing region of the shaft for receiving at least one radial journal bearing, and the shaft having a turbine-end body forming an A datum surface for receiving an axial bearing, comprising: a tool housing ; wherein the tool housing forms an opening sized to receive the rotor shaft such that the journal bearing region of the shaft extends into the tool housing while the A datum surface adjoins an end of the tool housing; wherein, with the rotor shaft received in the opening of the tool, the housing forms an annular cooling chamber surrounding the journal bearing region of the shaft; wherein there is an inlet passage to provide cooling fluid to the annular chamber from a cooling fluid inlet port ; wherein the housing forms an outlet passage to remove cooling fluid from the annular chamber to a cooling fluid outlet port ; and wherein the housing forms the inlet passage and the outlet passage. a tool housing ; wherein the tool housing forms an opening sized to receive the rotor shaft such that the journal bearing region of the shaft extends into the tool housing while the A datum surface adjoins an end of the tool housing; wherein, with the rotor shaft received in the opening of the tool, the housing forms an annular cooling chamber surrounding the journal bearing region of the shaft; wherein there is an inlet passage to provide cooling fluid to the annular chamber from a cooling fluid inlet port ; wherein the housing forms an outlet passage to remove cooling fluid from the annular chamber to a cooling fluid outlet port ; and wherein the housing forms the inlet passage and the outlet passage.
A method of a terminal in a wireless communication system, the method comprising: receiving, from a base station, information configuring sidelink bandwidth part, BWP, wherein the information includes a resource pool configuration on the sidelink BWP and information of resources for a physical sidelink control channel, PSCCH; identifying a resource pool based on the resource pool configuration; and performing sidelink communication with another terminal based on the resource pool, wherein the resource pool configuration includes information indicating a lowest physical resource block, PRB, index of the resource pool, wherein a symbol preceding a first symbol of the PSCCH and associated physical sidelink shared channel, PSSCH, is used for an automatic gain control, AGC, and wherein a symbol following a last symbol of a physical sidelink feedback channel, PSFCH, is used as a gap, wherein the information indicating the lowest PRB index of the resource pool indicates the lowest PRB index of the resource pool with respect to the lowest PRB index of the sidelink BWP. receiving, from a base station, information configuring sidelink bandwidth part, BWP, wherein the information includes a resource pool configuration on the sidelink BWP and information of resources for a physical sidelink control channel, PSCCH; identifying a resource pool based on the resource pool configuration; and performing sidelink communication with another terminal based on the resource pool, wherein the resource pool configuration includes information indicating a lowest physical resource block, PRB, index of the resource pool, wherein a symbol preceding a first symbol of the PSCCH and associated physical sidelink shared channel, PSSCH, is used for an automatic gain control, AGC, and wherein a symbol following a last symbol of a physical sidelink feedback channel, PSFCH, is used as a gap, wherein the information indicating the lowest PRB index of the resource pool indicates the lowest PRB index of the resource pool with respect to the lowest PRB index of the sidelink BWP.
Cooling apparatus comprising: a solar heat collection means ; two or more absorption refrigeration modules , each module being arranged to receive heat from the heat collection means and to re-circulate refrigerant through an evaporator ; and means for putting air to be cooled into thermal contact with each of the evaporators, wherein each module has: a. a generator containing a solution of refrigerant in a liquid, the generator being arranged to receive heat from the heat collector and to cause evaporation of the refrigerant, b. a bubble pump for pumping the liquid from the generator to an absorber , c. a condenser arranged to receive gaseous refrigerant from the generator and to condense the same, d. an evaporator , e. means for passing liquid refrigerant from the condenser to the evaporator, f. absorbing means for receiving gaseous refrigerant from the evaporator, absorbing it into the liquid from the bubble pump and returning the liquid to the generator, and g. a casing enclosing components (a) to (f) and including means for attaching the modules rigidly together, in which the casing of each module, together with partition walls within the casing, provides an evaporator housing defining a path for the air to be cooled, and includes ports by which the evaporator housings within the casings of adjoining modules are connected together. a. a generator containing a solution of refrigerant in a liquid, the generator being arranged to receive heat from the heat collector and to cause evaporation of the refrigerant, b. a bubble pump for pumping the liquid from the generator to an absorber , c. a condenser arranged to receive gaseous refrigerant from the generator and to condense the same, d. an evaporator , e. means for passing liquid refrigerant from the condenser to the evaporator, f. absorbing means for receiving gaseous refrigerant from the evaporator, absorbing it into the liquid from the bubble pump and returning the liquid to the generator, and g. a casing enclosing components (a) to (f) and including means for attaching the modules rigidly together,
A surface cleaning device , comprising: a base adapted for contacting a surface of a surrounding environment to be cleaned; a suction source ; a suction nozzle assembly provided on the base and defining a suction nozzle in fluid communication with the suction source; a fluid delivery and recovery system , comprising: a fluid supply tank adapted to hold a supply of fluid; a fluid dispenser in fluid communication with the fluid supply tank; and a recovery tank in fluid communication with the suction nozzle assembly ; a fluid level sensing assembly , comprising: at least one probe ; and a controller communicatively coupled to the at least one probe and configured to electronically control the at least one probe and configured to detect a level of fluid in at least one of the fluid supply tank or the recovery tank to define a presence of liquid; characterized in that the at least one probe is located on a bracket assembly that is contained within the recovery tank. a base adapted for contacting a surface of a surrounding environment to be cleaned; a suction source ; a suction nozzle assembly provided on the base and defining a suction nozzle in fluid communication with the suction source; a fluid delivery and recovery system , comprising: a fluid supply tank adapted to hold a supply of fluid; a fluid dispenser in fluid communication with the fluid supply tank; and a recovery tank in fluid communication with the suction nozzle assembly ; a fluid supply tank adapted to hold a supply of fluid; a fluid dispenser in fluid communication with the fluid supply tank; and a recovery tank in fluid communication with the suction nozzle assembly ; a fluid level sensing assembly , comprising: at least one probe ; and a controller communicatively coupled to the at least one probe and configured to electronically control the at least one probe and configured to detect a level of fluid in at least one of the fluid supply tank or the recovery tank to define a presence of liquid; at least one probe ; and a controller communicatively coupled to the at least one probe and configured to electronically control the at least one probe and configured to detect a level of fluid in at least one of the fluid supply tank or the recovery tank to define a presence of liquid; characterized in that the at least one probe is located on a bracket assembly that is contained within the recovery tank.
An electro-hydraulic brake system for a vehicle, comprising: a master cylinder block disposed in fluid communication with a reservoir tank containing a brake fluid; a protrusion extending outwardly from a rear surface of said master cylinder block to a terminal end ; said master cylinder block defining a channel extending along a center axis into said protrusion and spaced from said terminal end ; a pressure supply unit coupled to said master cylinder block and in fluid communication with said reservoir tank for supplying the brake fluid from said reservoir tank ; said pressure supply unit including a housing defining a chamber ; a displacement piston slidably disposed in said channel and extending along said center axis between a primary end and a secondary end with said primary end being disposed in said chamber defined by the housing of said pressure supply unit and said secondary end being disposed in said channel defined by said master cylinder block ; an actuator disposed in said chamber and rotatably coupled to said displacement piston for moving said displacement piston along said center axis; and characterized in that the electro-hydraulic brake system further comprises a first anti-rotational member disposed in said channel defined by said master cylinder block and coupled to said terminal end of said protrusion for engaging said secondary end of said displacement piston to prevent rotation of said displacement piston and translate rotational movement of said actuator into an axial movement. a master cylinder block disposed in fluid communication with a reservoir tank containing a brake fluid; a protrusion extending outwardly from a rear surface of said master cylinder block to a terminal end ; said master cylinder block defining a channel extending along a center axis into said protrusion and spaced from said terminal end ; a pressure supply unit coupled to said master cylinder block and in fluid communication with said reservoir tank for supplying the brake fluid from said reservoir tank ; said pressure supply unit including a housing defining a chamber ; a displacement piston slidably disposed in said channel and extending along said center axis between a primary end and a secondary end with said primary end being disposed in said chamber defined by the housing of said pressure supply unit and said secondary end being disposed in said channel defined by said master cylinder block ; an actuator disposed in said chamber and rotatably coupled to said displacement piston for moving said displacement piston along said center axis; and characterized in that the electro-hydraulic brake system further comprises a first anti-rotational member disposed in said channel defined by said master cylinder block and coupled to said terminal end of said protrusion for engaging said secondary end of said displacement piston to prevent rotation of said displacement piston and translate rotational movement of said actuator into an axial movement.
A method of allocating an Evolved Packet System, EPS, bearer identifier, performed by a Session Management Function, SMF, entity and comprising: receiving a Packet Data Unit, PDU, Session Establishment Request message from a User Equipment, UE via an Access and Mobility management Function, AMF, entity; or receiving an Evolved Packet System, EPS, bearer context request message transmitted by the AMF entity; mapping a corresponding Packet Data Unit, PDU, session/connection to at least one Evolved Packet System, EPS, bearer; characterized in that , the method further comprises: transmitting a message to the AMF entity to request the AMF entity to allocate an EPS bearer identifier to the at least one mapped EPS bearer, wherein the message carries information of the at least one mapped EPS bearer or the number of the at least one mapped EPS bearers; wherein the information of the at least one mapped EPS bearer carries a mapping relation between the EPS bearer and a Quality of Service data flow, QoS flow, or a mapping relation between the EPS bearer and a Traffic Flow Template, TFT. receiving a Packet Data Unit, PDU, Session Establishment Request message from a User Equipment, UE via an Access and Mobility management Function, AMF, entity; or receiving an Evolved Packet System, EPS, bearer context request message transmitted by the AMF entity; mapping a corresponding Packet Data Unit, PDU, session/connection to at least one Evolved Packet System, EPS, bearer; transmitting a message to the AMF entity to request the AMF entity to allocate an EPS bearer identifier to the at least one mapped EPS bearer, wherein the message carries information of the at least one mapped EPS bearer or the number of the at least one mapped EPS bearers; wherein the information of the at least one mapped EPS bearer carries a mapping relation between the EPS bearer and a Quality of Service data flow, QoS flow, or a mapping relation between the EPS bearer and a Traffic Flow Template, TFT.
A dispenser for dispensing flowable compounds such as liquid or paste-like compounds, comprising a storage reservoir for accommodating the compound and a dispenser pump designed with a preferably modular construction, wherein the dispenser pump has an inlet channel and an outlet channel and a pump chamber , which is delimited by valves on the inlet side and the outlet side, as well as a head piece , wherein the head piece has a dispensing opening , wherein a restoring device formed by a spring furthermore is provided between the head piece and the storage reservoir , wherein the restoring device is formed by a plastic spring with a lower spring ring and an upper spring ring , which essentially are arranged coaxial to one another, wherein a respective plane (E) spanned by the spring rings essentially extends perpendicular to a longitudinal axis (y) of the plastic spring , wherein multiple intermediate rings , which essentially extend transverse to the longitudinal axis (y) of the plastic spring , are formed over the height (h) of the plastic spring , and wherein the spring rings and the intermediate rings are connected to one another by spring struts extending between the intermediate rings , as well as between the spring rings and the intermediate rings , characterized in that two intermediate rings , which follow one another in the direction (r) of the longitudinal axis (y), are curved in opposite directions, in that two spring struts , which lie diametrically opposite of one another with respect to the longitudinal axis (y), are provided in each connecting plane between two intermediate rings , and in that a width (c) of an intermediate ring measured in the direction (r) of the longitudinal axis (y) is greater than a width (c') of the lower and/or upper spring ring measured in the same direction (r) by 10 percent or more.
A method of operating a robotic cleaning device comprising the steps of: - Recording (S01) an obstacle detecting device output data of a vicinity of the robotic cleaning device with an object detecting device; - identifying a landmark (S02) and its position from the obstacle detecting device output data and characterized in that the method further comprises the steps of: deriving information from the landmark to generate (S03) a landmark signature; - storing (S04) the generated landmark signature; - comparing (S05) the generated landmark signature with predetermined landmark signatures; and - determining, whether the generated landmark signature matches one of the predetermined landmark signatures or not; - operating the robotic cleaning device on the basis of the determination. - Recording (S01) an obstacle detecting device output data of a vicinity of the robotic cleaning device with an object detecting device; - identifying a landmark (S02) and its position from the obstacle detecting device output data and characterized in that the method further comprises the steps of: deriving information from the landmark to generate (S03) a landmark signature; - storing (S04) the generated landmark signature; - comparing (S05) the generated landmark signature with predetermined landmark signatures; and - determining, whether the generated landmark signature matches one of the predetermined landmark signatures or not; - operating the robotic cleaning device on the basis of the determination.
A device for the transfer of cryogenic product from a first floating structure for storing cryogenic product to a second fixed or floating structure for storing cryogenic product, comprising pipes configured to transport the cryogenic product between a duct linked to the first structure and a duct linked to the second structure, said pipes being rigid, buoyancy means for carrying the pipes and connection means for fluidically connecting the pipes in pairs, said connection means being suitable for transporting the cryogenic product and allowing at least one degree of freedom, wherein each buoyancy means comprises a pipe support enabling pipe sliding and a support for pipe fastening to the buoyancy means .