mhurhangee/patent-ind-claim-en huggingface dataset:
An external chemical dosing system arranged to be located external to an appliance having a plurality of water inlets , the system comprising: a plurality of flow sensors each arranged to be located external to an appliance and to be associated with a respective water inlet of the appliance , each flow sensor being arranged to determine when water is being supplied through a respective inlet ; at least one meter arranged to be located external to the appliance and arranged to determine the volume of water supplied to the appliance through one or more of the inlets , or the rate at which water is being supplied to the appliance through one or more of the water inlets ; a pump or valve arranged to be located external to the appliance for dispensing a volume of chemical to the appliance; and a control unit arranged to be located external to the appliance , characterised in that the control unit is arranged to receive signals from each of the flow sensors and the at least one meter and to determine from said signals the stage in a cycle the appliance is at, by determining through which inlets water is being drawn into the appliance , control the pump or valve in dependence on the stage of the cycle the appliance is at, to cause the pump or valve to dispense a chemical to the appliance appropriate for the stage of the cycle the appliance is at; and to control the quantity of chemical dispensed in dependence on the signal, or signals, received from the at least one meter , indicative of the volume of water drawn into the appliance at that stage of the cycle. a plurality of flow sensors each arranged to be located external to an appliance and to be associated with a respective water inlet of the appliance , each flow sensor being arranged to determine when water is being supplied through a respective inlet ; at least one meter arranged to be located external to the appliance and arranged to determine the volume of water supplied to the appliance through one or more of the inlets , or the rate at which water is being supplied to the appliance through one or more of the water inlets ; a pump or valve arranged to be located external to the appliance for dispensing a volume of chemical to the appliance; and a control unit arranged to be located external to the appliance , characterised in that the control unit is arranged to receive signals from each of the flow sensors and the at least one meter and to determine from said signals the stage in a cycle the appliance is at, by determining through which inlets water is being drawn into the appliance , control the pump or valve in dependence on the stage of the cycle the appliance is at, to cause the pump or valve to dispense a chemical to the appliance appropriate for the stage of the cycle the appliance is at; and to control the quantity of chemical dispensed in dependence on the signal, or signals, received from the at least one meter , indicative of the volume of water drawn into the appliance at that stage of the cycle.
An optical light Multi Mode Interferometer, here below abbreviated as MMI, type splitter that comprises or is connected to at least one input waveguide (4; 6, 7; 18, 19; 32, 33; 41, 42) for light, where the input waveguide position(s) and MMI region construction and dimensions are selected to create two or more images of light from the input waveguide(s) on the output side of the light splitter that is opposite to the input waveguide(s), where a surface is present on the output side of the light splitter, wherein the said surface is set at an angle to the direction of propagation of the light, but does not lie perpendicular to the direction of propagation of the light, characterised in that the light splitter , on the output side transitions into at most one output waveguide in the direction of propagation of the incoming light, and in that the said surface is present where the light splitter has an image from incoming light, and in that internal corners are not present on the output side.
A percutaneous ostomy implant comprising a tubular interior section for implantation into a patient and an exterior section connected to the interior section , a surface of the exterior section comprising a rigid three-dimensional porous structure at an inner circumference thereof characterized in that the thickness of any member forming the porous structure is less than or equal to 500 μm and/or the maximum diameter of any opening in the porous structure is 500 μm.
Device for measuring characteristic parameters of at least one set of at least one light-emitting diode associated at least with : - a BIN resistance corresponding to the resistance of the assembly associated with the flow performance as a function of the current through, and - a thermistor connected in series with the BIN resistor, the device comprising a measuring circuit for each assembly, in that the measuring circuit comprises : - a single measurement output for delivering electrical values representative of at least two characteristic parameters of the assembly, said measurement output being connected between said BIN resistor and said thermistor and consisting of a resistor in series with switching means , - a first circuit configuration arranged to deliver at the measurement output a value representative of a first characteristic parameter comprising the resistance value BIN, - a second circuit configuration arranged to deliver at the measurement output a value representative of a second characteristic parameter comprising the temperature via the thermistor, - switching means for switching between the first configuration and the second configuration - means for triggering the switching means configured to place a first switching means in a closed mode while preserving a second switching means in an open mode, the change from one circuit configuration to the other being effected by reversing the closed and open mode of the two switching means and for periodically triggering a measurement of at least one of the characteristic parameters. - a BIN resistance corresponding to the resistance of the assembly associated with the flow performance as a function of the current through, and - a thermistor connected in series with the BIN resistor, - a single measurement output for delivering electrical values representative of at least two characteristic parameters of the assembly, said measurement output being connected between said BIN resistor and said thermistor and consisting of a resistor in series with switching means , - a first circuit configuration arranged to deliver at the measurement output a value representative of a first characteristic parameter comprising the resistance value BIN, - a second circuit configuration arranged to deliver at the measurement output a value representative of a second characteristic parameter comprising the temperature via the thermistor, - switching means for switching between the first configuration and the second configuration - means for triggering the switching means configured to place a first switching means in a closed mode while preserving a second switching means in an open mode, the change from one circuit configuration to the other being effected by reversing the closed and open mode of the two switching means and for periodically triggering a measurement of at least one of the characteristic parameters.
Vehicle comprising a vehicle body (F) and an independently driving wheel module, comprising: a base frame including an upper end fixed to a coupling surface of the vehicle body (F), a connection link including a first end, and a second end having a shape extending downward from the first end of the connection link ; and a driving wheel disposed at a side of the second end of the connection link and coupled to the second end of the connection link ; characterized by a rotation part coupled to the upper end of the base frame such that the rotation part is rotatable with respect to the upper end of the base frame ; the first end of the connection link being integrally coupled to the rotation part ; and a rotation plate including an upper surface and a lower surface extending obliquely in misaligned directions, the rotation plate being interposed between the base frame and the vehicle body (F) so as to be rotatable with respect to the base frame or the vehicle body (F). a base frame including an upper end fixed to a coupling surface of the vehicle body (F), a connection link including a first end, and a second end having a shape extending downward from the first end of the connection link ; and a driving wheel disposed at a side of the second end of the connection link and coupled to the second end of the connection link ; characterized by a rotation part coupled to the upper end of the base frame such that the rotation part is rotatable with respect to the upper end of the base frame ; the first end of the connection link being integrally coupled to the rotation part ; and a rotation plate including an upper surface and a lower surface extending obliquely in misaligned directions, the rotation plate being interposed between the base frame and the vehicle body (F) so as to be rotatable with respect to the base frame or the vehicle body (F).
A heat exchanger comprising: a heat exchanger core defining a helical, first fluid flow path and a helical, second fluid flow path in thermal communication with one another, wherein the first fluid flow path comprises a plurality of first fluid conduits arranged in a two-dimensional grid configuration; a first fluid inlet structure for supplying a first fluid from a first fluid inlet to the plurality of first fluid conduits ; and a first fluid outlet structure for supplying the first fluid from the plurality of first fluid conduits to a first fluid outlet , wherein the first fluid inlet and outlet structures each comprise at least two multi-furcation stages in which a parent channel divides into two or more sub-channels that diverge away from each other. a heat exchanger core defining a helical, first fluid flow path and a helical, second fluid flow path in thermal communication with one another, wherein the first fluid flow path comprises a plurality of first fluid conduits arranged in a two-dimensional grid configuration; a first fluid inlet structure for supplying a first fluid from a first fluid inlet to the plurality of first fluid conduits ; and a first fluid outlet structure for supplying the first fluid from the plurality of first fluid conduits to a first fluid outlet , wherein the first fluid inlet and outlet structures each comprise at least two multi-furcation stages in which a parent channel divides into two or more sub-channels that diverge away from each other.
A method of wireless communication performed by a user equipment, UE, comprising: determining that a digital pre-distortion, DPD, training is to be performed by a modem, wherein the modem is configured for communication between the UE and a primary network associated with the UE; and configuring the modem to perform the DPD training using a secondary network associated with the UE, wherein the modem is configured to select a transmission timing for the DPD training, to switch a mixer of the modem to a band of the secondary network, and to perform the DPD training, and configuring the modem to switch the mixer of the modem back to a band of the primary network to resume communication between the UE and the primary network using the DPD training to address non-linearities within transmissions by the UE. determining that a digital pre-distortion, DPD, training is to be performed by a modem, wherein the modem is configured for communication between the UE and a primary network associated with the UE; and configuring the modem to perform the DPD training using a secondary network associated with the UE, wherein the modem is configured to select a transmission timing for the DPD training, to switch a mixer of the modem to a band of the secondary network, and to perform the DPD training, and configuring the modem to switch the mixer of the modem back to a band of the primary network to resume communication between the UE and the primary network using the DPD training to address non-linearities within transmissions by the UE.
A cable arm bracket comprising: a body having a first end and a second end , generally opposite from the first end; a cable guide attached to the first end of the body; at least two apertures in the second end of the body; and a spring sheet connected to the body having a first end and a second end (31 0b), generally opposite from the first end and over the second end of the body, the spring sheet having a ridge at the second end that obstructs at least part of at least one aperture of the at least two apertures with the spring sheet in a first position, wherein the spring sheet is configured to bias into a second position so that the ridge does not obstruct the at least part of the at least one aperture . a body having a first end and a second end , generally opposite from the first end; a cable guide attached to the first end of the body; at least two apertures in the second end of the body; and a spring sheet connected to the body having a first end and a second end (31 0b), generally opposite from the first end and over the second end of the body, the spring sheet having a ridge at the second end that obstructs at least part of at least one aperture of the at least two apertures with the spring sheet in a first position, wherein the spring sheet is configured to bias into a second position so that the ridge does not obstruct the at least part of the at least one aperture .
An apparatus for separating volatiles from particulates, comprising: a separator having an internal volume, wherein the separator further comprises a separation section having a cylindrical inner wall disposed toward the first end of the separator and a particulate discharge section having a frustoconical inner wall disposed toward the second end of the separator.; a fluid discharge outlet, a particulate discharge outlet, a particulate inlet, and a fluid inlet in fluid communication with the internal volume, wherein the particulate inlet is disposed toward a first end of the separator, wherein the fluid inlet is disposed toward a second end of the separator, and wherein the fluid inlet includes one or more openings disposed through a sidewall of the separator; and a fluid introduction cone disposed within the internal volume and located toward the second end of the separator, wherein a base of the cone is oriented toward the second end of the separator, wherein the fluid introduction cone is supported by one or more support members extending from an internal wall of the cone to the sidewall of the particulate discharge section of separator such that an annulus is formed between the base of the cone and the separator that is free of any structures, and wherein a conduit fluidly connects the fluid inlet with an internal volume of the fluid introduction cone, and wherein the frustoconical inner wall has an angle ranging from about 50° to about 80° with respect to a base of the frustoconical inner wall. a separator having an internal volume, wherein the separator further comprises a separation section having a cylindrical inner wall disposed toward the first end of the separator and a particulate discharge section having a frustoconical inner wall disposed toward the second end of the separator.; a fluid discharge outlet, a particulate discharge outlet, a particulate inlet, and a fluid inlet in fluid communication with the internal volume, wherein the particulate inlet is disposed toward a first end of the separator, wherein the fluid inlet is disposed toward a second end of the separator, and wherein the fluid inlet includes one or more openings disposed through a sidewall of the separator; and a fluid introduction cone disposed within the internal volume and located toward the second end of the separator, wherein a base of the cone is oriented toward the second end of the separator, wherein the fluid introduction cone is supported by one or more support members extending from an internal wall of the cone to the sidewall of the particulate discharge section of separator such that an annulus is formed between the base of the cone and the separator that is free of any structures, and wherein a conduit fluidly connects the fluid inlet with an internal volume of the fluid introduction cone, and wherein the frustoconical inner wall has an angle ranging from about 50° to about 80° with respect to a base of the frustoconical inner wall.
A cleaning tool, having a cleaning sheet and a holder for holding the cleaning sheet , wherein: the cleaning sheet is configured to extend in a longitudinal direction which is defined by a direction of insertion of the holder into the cleaning sheet , and in a transverse direction which is defined by a direction crossing the longitudinal direction, the holder has a holding part for holding the cleaning sheet , and a grip part which is connected to the holding part and designed to be held by a user, the cleaning sheet has a brush part capable of cleaning an object to be cleaned, a base connected with the brush part , and an insertion part which is formed on the base and into which the holding part is inserted, the base having opposite ends in the transverse direction, and the brush part is configured to have a first cleaning region , a second cleaning region and a bending region between the first and second cleaning regions by being bent at an end of the base , wherein the base and the brush part are bonded at a central bonded part and first bonded parts between the central bonded part and the corresponding end of the base in the transverse direction, characterized in that the first bonded parts extend through the base and into the first cleaning region of the brush part . the cleaning sheet is configured to extend in a longitudinal direction which is defined by a direction of insertion of the holder into the cleaning sheet , and in a transverse direction which is defined by a direction crossing the longitudinal direction, the holder has a holding part for holding the cleaning sheet , and a grip part which is connected to the holding part and designed to be held by a user, the cleaning sheet has a brush part capable of cleaning an object to be cleaned, a base connected with the brush part , and an insertion part which is formed on the base and into which the holding part is inserted, the base having opposite ends in the transverse direction, and the brush part is configured to have a first cleaning region , a second cleaning region and a bending region between the first and second cleaning regions by being bent at an end of the base , wherein the base and the brush part are bonded at a central bonded part and first bonded parts between the central bonded part and the corresponding end of the base in the transverse direction, characterized in that the cleaning sheet has a brush part capable of cleaning an object to be cleaned, a base connected with the brush part , and an insertion part which is formed on the base and into which the holding part is inserted, the base having opposite ends in the transverse direction, and the brush part is configured to have a first cleaning region , a second cleaning region and a bending region between the first and second cleaning regions by being bent at an end of the base , wherein the base and the brush part are bonded at a central bonded part and first bonded parts between the central bonded part and the corresponding end of the base in the transverse direction, characterized in that the first bonded parts extend through the base and into the first cleaning region of the brush part .
A pallet car for the transport of bulk material for a thermal treatment thereof, comprising a frame with at least two opposed cross-beams on which grate bars rest and two end pieces each connecting the cross-beams with each other, which each include at least two rollers and at least one side wall , characterized in that the grate bars and/or the side walls and/or an insulating plate which is provided between at least one part of the pallet car and the grate bar is made of a ceramic fiber composite, wherein the fibers are metallic and high-temperature resistant.
A woven fabric comprising a weft yarn and at most two warp yarn systems of yarns A and B, respectively, wherein the warp yarns A and B are distinguished by their yarn composition, wherein the weft yarn comprises a high performance fiber, having a tenacity or tensile strength of at least 1.2 N/tex,; the warp yarn A comprises at least 50 wt% of a natural fiber; the warp yarn B is a spun yarn and comprises a high performance fiber, having a tenacity or tensile strength of at least 1.2 N/tex; and wherein the fabric has an outside surface comprising the warp yarn A and an inside surface comprising the warp yarn B and said outside and inside surfaces being at least partially interconnected by the weft yarn.
A component transfer device of a component mounter comprising: a single nozzle head that has one suction nozzle which picks up a component from a supply position by making the internal pressure of the suction nozzle negative and mounts the component on a board (K) held at a fixed position by raising the internal pressure of the suction nozzle ; a multiple nozzle head that has multiple suction nozzles ; a head holding section that exchangeably holds the single nozzle head and the multiple nozzle head ; a pickup/mounting driving section provided on the head holding section that connects with the suction nozzle of the held single nozzle head or a selected suction nozzle of the held multiple nozzle head , and raises/lowers the internal pressure of the suction nozzle ; and a head driving section that drives the head holding section and the held single nozzle head or the held multiple nozzle head between the supply position and the board (K) held at a fixed position; the component transfer device being characterized in that the pickup/mounting driving section , when making the suction nozzle of the held single nozzle head perform mounting of the component, cuts off the suction nozzle from a negative pressure source , connects the suction nozzle both to the atmosphere, so that outside air is introduced such that the negative pressure rises, and to a positive pressure source . a single nozzle head that has one suction nozzle which picks up a component from a supply position by making the internal pressure of the suction nozzle negative and mounts the component on a board (K) held at a fixed position by raising the internal pressure of the suction nozzle ; a multiple nozzle head that has multiple suction nozzles ; a head holding section that exchangeably holds the single nozzle head and the multiple nozzle head ; a pickup/mounting driving section provided on the head holding section that connects with the suction nozzle of the held single nozzle head or a selected suction nozzle of the held multiple nozzle head , and raises/lowers the internal pressure of the suction nozzle ; and a head driving section that drives the head holding section and the held single nozzle head or the held multiple nozzle head between the supply position and the board (K) held at a fixed position; the component transfer device being characterized in that the pickup/mounting driving section , when making the suction nozzle of the held single nozzle head perform mounting of the component, cuts off the suction nozzle from a negative pressure source , connects the suction nozzle both to the atmosphere, so that outside air is introduced such that the negative pressure rises, and to a positive pressure source .