mhurhangee/patent-ind-claim-en huggingface dataset:
A vehicle assembly comprising a vehicle body panel and hinge means connecting the vehicle body panel to a vehicle structure, spacing means arranged with the hinge means for maintaining at least a part of the vehicle body panel in a predetermined spacing from the vehicle structure when the hinge means is in a first position, the spacing means being configured to suffer brittle failure and break into two or more discrete parts when a predetermined load is applied thereto; wherein the spacing means is formed from a material configured to suffer brittle fracture when the predetermined load is applied; wherein the spacing means is configured to suffer substantially brittle failure only when a load of greater than 1000N is applied to the vehicle body panel; and wherein the spacing means is formed of a material which is configured to suffer substantially brittle failure over a temperature range of -30 to 70 degrees centigrade when a predetermined load is applied thereto.
A method performed by a workflow manager in an electronic device , the method comprising: sending , to a function repository , a query; receiving , from the function repository , a function description for each of a set of media processing functions; determining that a function in the received set of media processing function descriptions belongs to a function group , the function group being a set of connected media processing functions which are designed to work together in workflows, wherein output ports of a given media processing function in the function group are connected to input ports of the next media processing function in the function group; receiving , from the function repository , a function group description including information on the function group; determining a workflow based on the function group description; and applying the set of media processing functions connected in the function group for the workflow, wherein the function group description further includes connectivity information on at least one function identifier of the set of functions for a connection. sending , to a function repository , a query; receiving , from the function repository , a function description for each of a set of media processing functions; determining that a function in the received set of media processing function descriptions belongs to a function group , the function group being a set of connected media processing functions which are designed to work together in workflows, wherein output ports of a given media processing function in the function group are connected to input ports of the next media processing function in the function group; receiving , from the function repository , a function group description including information on the function group; determining a workflow based on the function group description; and applying the set of media processing functions connected in the function group for the workflow, wherein the function group description further includes connectivity information on at least one function identifier of the set of functions for a connection.
A biaxially oriented polypropylene film for a capacitor, in which μdm and μdt are each in the range of 0.60 - 1.70 and the value of the ratio (μdm/μdt) of μdm and μdt is 0.75 to less than 1.15, wherein μdm is the kinetic friction coefficient in a longitudinal direction and μdt is the kinetic friction coefficient in a width direction, which kinetic friction coefficients are measured in accordance with JIS-K7125 , and the film thickness measured by a micrometer method is in the range of 0.5 - 3 μm.
Method for operating a capillary network gateway (100-1), wherein the capillary network gateway (100-1) comprises an interface to a base station of a cellular network for connecting the capillary network gateway (100-1) to a mobile telecommunication network and an interface for connecting at least one machine device (101-1, 101-2, 101-3) via at least one radio connection to the capillary network gateway (100-1), wherein the interface for connecting at least one machine device (101-1, 101-2, 101-3) via at least one radio connection uses a short range radio connection, comprising the steps of: - determining (S101), by the capillary network gateway (100-1), a condition to switch into a power-saving mode; - instructing (S102) the at least one machine device (101-3) to associate to a further capillary network gateway (100-2), if the condition is fulfilled; and - connecting (S103) the capillary network gateway (100-1) to a further capillary network gateway (100-2) via a radio connection which is based on the same technology as the at least one radio connection for the machine device (101-1, 101-2, 101-3). - determining (S101), by the capillary network gateway (100-1), a condition to switch into a power-saving mode; - instructing (S102) the at least one machine device (101-3) to associate to a further capillary network gateway (100-2), if the condition is fulfilled; and - connecting (S103) the capillary network gateway (100-1) to a further capillary network gateway (100-2) via a radio connection which is based on the same technology as the at least one radio connection for the machine device (101-1, 101-2, 101-3).
A replacement contact-tip configured to be mounted on an end section of an electrical contact , the replacement contact-tip comprising a contact spring and a support casing , the contact spring being accessible for electrical contacting on an inwardly facing surface and an outwardly facing surface , and the contact spring further having an axial front end and an axial rear end , wherein the axial front end is at least partly covered by the support casing , characterized in that an internal cavity of the support casing is shaped complementarily to the contact spring and captively holds the contact spring .
A system, comprising: a fingerprint scanner ; a magnetic switch coupled to the fingerprint scanner, wherein the magnetic switch is configured to secure a lid of a computing device to a base of the computing device when the magnetic switch is engaged; an infrared, IR, scanner coupled to the magnetic switch; and an electronic switch coupled to the IR scanner, wherein the magnetic switch is configured to disengage upon a determination by the fingerprint scanner that an input from the fingerprint scanner corresponds to a known fingerprint, wherein the magnetic switch is configured such that, upon disengagement of the magnetic switch, the lid of the computing device is allowed to open, wherein the IR scanner is configured such that, upon disengagement of the magnetic switch, the IR scanner receives power from the magnetic switch and receives an input corresponding to an iris scan, wherein the electronic switch is configured to engage upon a determination by the IR scanner that the input from the IR scanner corresponds to a known iris pattern, and wherein the electronic switch is configured to, upon engagement of the electronic switch, direct current to a series of components of the computing device to cause an operating system of the computing device to run. a fingerprint scanner ; a magnetic switch coupled to the fingerprint scanner, wherein the magnetic switch is configured to secure a lid of a computing device to a base of the computing device when the magnetic switch is engaged; an infrared, IR, scanner coupled to the magnetic switch; and an electronic switch coupled to the IR scanner, wherein the magnetic switch is configured to disengage upon a determination by the fingerprint scanner that an input from the fingerprint scanner corresponds to a known fingerprint, wherein the magnetic switch is configured such that, upon disengagement of the magnetic switch, the lid of the computing device is allowed to open, wherein the IR scanner is configured such that, upon disengagement of the magnetic switch, the IR scanner receives power from the magnetic switch and receives an input corresponding to an iris scan, wherein the electronic switch is configured to engage upon a determination by the IR scanner that the input from the IR scanner corresponds to a known iris pattern, and wherein the electronic switch is configured to, upon engagement of the electronic switch, direct current to a series of components of the computing device to cause an operating system of the computing device to run.
A method of carrying out autothermal oxidative coupling of methane (OCM) comprising: introducing a methane-containing feedstock and an oxygen-gas-containing feedstock into a reactor as a flowing mixture with a space time of 500 ms or less, the reactor containing a catalyst bed of an OCM catalyst that contacts the flowing mixture and wherein the catalyst bed has a heat Peclet number ( Pe h ) of from 5 or less, a mass Peclet number ( Pe m )of from 5 or more, and a transverse Peclet number (P) of from 1 or less while contacting the flowing mixture ; and allowing the methane and oxygen of the feedstocks to react within the reactor to form methane oxidative coupling reaction products. introducing a methane-containing feedstock and an oxygen-gas-containing feedstock into a reactor as a flowing mixture with a space time of 500 ms or less, the reactor containing a catalyst bed of an OCM catalyst that contacts the flowing mixture and wherein the catalyst bed has a heat Peclet number ( Pe h ) of from 5 or less, a mass Peclet number ( Pe m )of from 5 or more, and a transverse Peclet number (P) of from 1 or less while contacting the flowing mixture ; and allowing the methane and oxygen of the feedstocks to react within the reactor to form methane oxidative coupling reaction products.
A method at a computing device for identification post compilation manipulation of a binary image, the method comprising: assessing the binary image for at least one junk instruction set wherein the at least one junk instruction set is from a library of junk instruction sets, the library being updated by: simulating a code section from at least one binary image; in response to finding that a stack state has not changed from a beginning of the simulating to an end of the simulating, adding the code section as a junk instruction within the library; determining that the at least one junk instruction set is found within the binary image; and flagging the binary image as being manipulated based on the determining. assessing the binary image for at least one junk instruction set wherein the at least one junk instruction set is from a library of junk instruction sets, the library being updated by: simulating a code section from at least one binary image; in response to finding that a stack state has not changed from a beginning of the simulating to an end of the simulating, adding the code section as a junk instruction within the library; simulating a code section from at least one binary image; in response to finding that a stack state has not changed from a beginning of the simulating to an end of the simulating, adding the code section as a junk instruction within the library; determining that the at least one junk instruction set is found within the binary image; and flagging the binary image as being manipulated based on the determining.
A manufacturing method of a bonded wafer comprising: a step of preparing a bond wafer which is a single crystal silicon substrate; a step of forming an insulating film on the side of at least the bonding surface side of the bond wafer; a first ion implantation step of conducting first ion implantation on the bond wafer so that a concentration peak of ion implantation is located at a position with a predetermined depth in an ion implantation profile in a depth direction from the surface of the bond wafer ; an additional function layer deposition step of depositing an additional function layer , which is made of a polysilicon layer or an amorphous silicon layer, on a ion implantation surface side of the bond wafer after conducting the first ion implantation step; a second ion implantation step of conducting second implantation with the first ion implantation position as a target from the additional function layer side of the bond wafer after conducting the additional function layer deposition step; a bonding step of bonding the additional function layer side of the bond wafer to a base wafer after conducting the second ion implantation step; and a delamination step of separating the bond wafer off at the position of the first ion implantation, wherein the first ion implantation adopts an ion implantation dosage causing no cracking in the bond wafer in a course of a thermal history in growth of the additional function layer . a step of preparing a bond wafer which is a single crystal silicon substrate; a step of forming an insulating film on the side of at least the bonding surface side of the bond wafer; a first ion implantation step of conducting first ion implantation on the bond wafer so that a concentration peak of ion implantation is located at a position with a predetermined depth in an ion implantation profile in a depth direction from the surface of the bond wafer ; an additional function layer deposition step of depositing an additional function layer , which is made of a polysilicon layer or an amorphous silicon layer, on a ion implantation surface side of the bond wafer after conducting the first ion implantation step; a second ion implantation step of conducting second implantation with the first ion implantation position as a target from the additional function layer side of the bond wafer after conducting the additional function layer deposition step; a bonding step of bonding the additional function layer side of the bond wafer to a base wafer after conducting the second ion implantation step; and
An auger feeder for drying and loading a filler insulation material , in particular vacuum insulation material, into a vacuum insulated structure , the auger feeder comprising: a hopper having an inner hopper wall and an outer hopper wall wherein the inner hopper wall includes an air permeable surface ; a space positioned between the inner and outer hopper walls ; a heater coupled to an outside edge of the inner hopper wall or an outside edge of the outer hopper wall ; a feed screw positioned along an inside edge of the inner hopper wall and an aperture exit positioned at the bottom of the inner and outer hopper walls , characterised in that : the auger feeder further comprises an evacuator coupled to a vacuum port positioned in the outer hopper wall and the air permeable surface comprises additionally a permeable membrane, the inner hopper wall comprising plurality of holes having a diameter less than 300 μm. a hopper having an inner hopper wall and an outer hopper wall wherein the inner hopper wall includes an air permeable surface ; a space positioned between the inner and outer hopper walls ; a heater coupled to an outside edge of the inner hopper wall or an outside edge of the outer hopper wall ; a feed screw positioned along an inside edge of the inner hopper wall and an aperture exit positioned at the bottom of the inner and outer hopper walls , characterised in that : the auger feeder further comprises an evacuator coupled to a vacuum port positioned in the outer hopper wall and the air permeable surface comprises additionally a permeable membrane, the inner hopper wall comprising plurality of holes having a diameter less than 300 μm. the auger feeder further comprises an evacuator coupled to a vacuum port positioned in the outer hopper wall and the air permeable surface comprises additionally a permeable membrane, the inner hopper wall comprising plurality of holes having a diameter less than 300 μm.
A multiport valve , comprising: a valve body comprising a body inlet coaxial to a first axis and a plurality of body outlets each oriented at an angle transverse to the first axis; a spherical flow control element disposed within a cavity of the valve body comprising a ball inlet having a ball inlet area radially arranged about the first axis, and a ball outlet radially arranged at the transverse angle to the first axis, the flow control element rotatable about the first axis to selectively align the ball outlet with each of the plurality of body outlets separately; a like plurality of outlet seat recesses , each outlet seat recess radially arranged about a respective one of the body outlets, each outlet seat recess receiving a respective outlet valve seat assembly in sealing engagement between the valve body and the flow control element; a like plurality of resilient members , each biasing a respective one of the outlet valve seat assemblies against the valve body; an inlet sleeve assembly radially arranged about the body inlet in sealing, biased engagement between the valve body and the flow control element; wherein the valve body comprises a main body sealingly engaged with an upper bonnet ; wherein a lower portion of each outlet seat recess is formed into the main body, whereby a corresponding lower portion of each resilient member is biased against the main body; and wherein an upper portion of each outlet seat recess is formed into the bonnet, whereby a corresponding upper portion of each resilient member is biased against the bonnet. a valve body comprising a body inlet coaxial to a first axis and a plurality of body outlets each oriented at an angle transverse to the first axis; a spherical flow control element disposed within a cavity of the valve body comprising a ball inlet having a ball inlet area radially arranged about the first axis, and a ball outlet radially arranged at the transverse angle to the first axis, the flow control element rotatable about the first axis to selectively align the ball outlet with each of the plurality of body outlets separately; a like plurality of outlet seat recesses , each outlet seat recess radially arranged about a respective one of the body outlets, each outlet seat recess receiving a respective outlet valve seat assembly in sealing engagement between the valve body and the flow control element; a like plurality of resilient members , each biasing a respective one of the outlet valve seat assemblies against the valve body; an inlet sleeve assembly radially arranged about the body inlet in sealing, biased engagement between the valve body and the flow control element; wherein the valve body comprises a main body sealingly engaged with an upper bonnet ; wherein a lower portion of each outlet seat recess is formed into the main body, whereby a corresponding lower portion of each resilient member is biased against the main body; and wherein an upper portion of each outlet seat recess is formed into the bonnet, whereby a corresponding upper portion of each resilient member is biased against the bonnet.
A double-coated tape comprising, in the following order: a first pressure-sensitive adhesive layer; a first ethylene vinyl acetate plastic skin layer; an elastic base layer; a second ethylene vinyl acetate plastic skin layer; and a second pressure-sensitive adhesive layer, wherein the first pressure-sensitive adhesive layer and the second pressure-sensitive adhesive layer are outermost layers on either side of the double-coated tape. a first pressure-sensitive adhesive layer; a first ethylene vinyl acetate plastic skin layer; an elastic base layer; a second ethylene vinyl acetate plastic skin layer; and a second pressure-sensitive adhesive layer, wherein the first pressure-sensitive adhesive layer and the second pressure-sensitive adhesive layer are outermost layers on either side of the double-coated tape.
Suspension arm for a motor vehicle comprising a first branch intended to be connected to a vehicle wheel support and a second branch intended to be mounted to the vehicle chassis, the first branch being shaped in such a way that its overall profile comprises, between a connection zone (Z1) for connection to the wheel support and a connection zone (Z2) at which the first branch is connected to the second branch , a curvature that is essentially comprised in a vertical plane when the arm is mounted on the vehicle, the curvature comprising a first curved line (I 1 ), at least part of a first edge of the first branch extending along said first curved line (I 1 ), said first edge being positioned on the side facing towards the front of the vehicle when the arm is mounted on the vehicle, the curvature comprising a second curved line (I 2 ), the first branch comprising a second edge , opposite to the first edge along the longitudinal axis of the vehicle and positioned on the side facing towards the rear of the vehicle when the arm is mounted on the vehicle, extending along the second curved line (I 2 ), said first and second edges being connected by a connecting part of the first branch and the curvature being bounded between the first curved line (I 1 ) and the second curved line (I 2 ), the connecting part evolving along a surface of curvature of the first branch including the first and second curved lines (I 1 , I 2 ), the curvature being shaped in such a way as to create a preferential zone of deformation, or breakage, of the first branch in the event of an impact, transverse to the vehicle, on the vehicle wheel so as to absorb at least some of the energy of said impact, characterized in that said curvature is present at least in a central zone of the first branch , which zone is situated equidistant from the connection zone (Z1) for connection to the wheel support and from the connection zone (Z2) at which the first branch is connected to the second branch , and in that at least the first branch is made of forged steel, and in that the first and second curved lines (l 1 , I 2 ) are different.
Method for thermal regulation of a water-heating system intended to supply a premises with hot water, said heating system comprising a standby fossil fuel generator , a variable speed compressor heat pump and a hydraulic isolation cylinder connected to said standby generator and à said heat pump , the method for regulation comprising: - a step of activating the heat pump systematically following a step of activating the heating system in order to regulate the temperature of the water exiting from the hydraulic cylinder at a given temperature, referred to as the setpoint temperature, - a step of determining a performance coefficient of the heat pump at given times during an operating duration of the heating system , referred to as real performance coefficient, whether the compressor is operating or is stopped, and - a step of modulating a load rate of the heat pump according to the measured value of the real performance coefficient and a comparison of the temperature of the water exiting from the hydraulic cylinder with the setpoint temperature. - a step of activating the heat pump systematically following a step of activating the heating system in order to regulate the temperature of the water exiting from the hydraulic cylinder at a given temperature, referred to as the setpoint temperature, - a step of determining a performance coefficient of the heat pump at given times during an operating duration of the heating system , referred to as real performance coefficient, whether the compressor is operating or is stopped, and - a step of modulating a load rate of the heat pump according to the measured value of the real performance coefficient and a comparison of the temperature of the water exiting from the hydraulic cylinder with the setpoint temperature.