mhurhangee/patent-ind-claim-en huggingface dataset:
An information processing device onboard a vehicle comprising: a map acquirer configured to acquire a map defining an obstacle (B) in a coordinate space (S) in which a direction along a traveling direction (C) of the vehicle is one of coordinate axes (X, Y); a movement route acquirer configured to acquire a movement route of the vehicle ; wherein the movement route is represented by a group of a plurality of route points arranged along the movement route; wherein the distance between the route points adjacent to each other in the route direction forming the movement route is equal to or smaller than a smallest size of the obstacle; a traveling direction identifier configured to identify the traveling direction (C) of the vehicle ; an approximation processor configured to approximate the movement route of the vehicle with a plurality of specified shape areas along a coordinate axis (X, Y) in the coordinate space (S), the areas being a basic unit of collision determination and having a shape along the movement route , wherein a specified shape area has a pair of the route points adjacent in the movement route as both ends in the traveling direction; a determiner configured to perform a collision determination in response to the obstacle (B) being in one of the plurality of specified shape areas ; a power controller configured to control a power unit of the vehicle based on collision determination result information obtained by the collision determination. a map acquirer configured to acquire a map defining an obstacle (B) in a coordinate space (S) in which a direction along a traveling direction (C) of the vehicle is one of coordinate axes (X, Y); a movement route acquirer configured to acquire a movement route of the vehicle ; wherein the movement route is represented by a group of a plurality of route points arranged along the movement route; wherein the distance between the route points adjacent to each other in the route direction forming the movement route is equal to or smaller than a smallest size of the obstacle; wherein the movement route is represented by a group of a plurality of route points arranged along the movement route; wherein the distance between the route points adjacent to each other in the route direction forming the movement route is equal to or smaller than a smallest size of the obstacle; a traveling direction identifier configured to identify the traveling direction (C) of the vehicle ; an approximation processor configured to approximate the movement route of the vehicle with a plurality of specified shape areas along a coordinate axis (X, Y) in the coordinate space (S), the areas being a basic unit of collision determination and having a shape along the movement route , wherein a specified shape area has a pair of the route points adjacent in the movement route as both ends in the traveling direction; a determiner configured to perform a collision determination in response to the obstacle (B) being in one of the plurality of specified shape areas ; a power controller configured to control a power unit of the vehicle based on collision determination result information obtained by the collision determination.
A bearing arrangement with a spatially alignable swash plate of a surgical instrument having a main shaft , wherein the swash plate can be connected to a plurality of steering wires for activating a distal bending mechanism of the surgical instrument and is connected in an articulated manner to the main shaft , which defines a main axis (A), wherein the swash plate is rotatable about two axes (X, Y) which are orthogonal to each other and to the main axis (A), and wherein a point of intersection of the two axes (X, Y), which defines a pivot centre (C) of the swash plate , lies on the main axis (A), wherein the main shaft has a spherical coupling section (7.1), and the swash plate has a hollow spherical outer bearing opening (8.1), wherein the pivot centre (C) of the swash plate corresponds to a ball centre of the hollow spherical outer bearing opening (8.1) and in the bearing arrangement corresponds to a ball centre of the spherical coupling section (7.1), and the bearing arrangement has rolling bearing balls with a ball radius (R) and a ball cage , which is movably arranged in the outer bearing opening (8.1) and delimits a hollow spherical inner bearing opening (11.3), in which the coupling section (7.1) of the main shaft is movably arranged, wherein the ball cage has window openings (11.1, 11.2), in each of which one of the rolling bearing balls is arranged, and the coupling section (7.1) has first round grooves (7.2) in the longitudinal direction of the main shaft as the inner raceway for the rolling bearing balls and the outer bearing opening (8.1) has second round grooves (8.2) in the longitudinal direction of the main shaft as the outer raceway for the rolling bearing balls . the main shaft has a spherical coupling section (7.1), and the swash plate has a hollow spherical outer bearing opening (8.1), wherein the pivot centre (C) of the swash plate corresponds to a ball centre of the hollow spherical outer bearing opening (8.1) and in the bearing arrangement corresponds to a ball centre of the spherical coupling section (7.1), and the bearing arrangement has rolling bearing balls with a ball radius (R) and a ball cage , which is movably arranged in the outer bearing opening (8.1) and delimits a hollow spherical inner bearing opening (11.3), in which the coupling section (7.1) of the main shaft is movably arranged, wherein the ball cage has window openings (11.1, 11.2), in each of which one of the rolling bearing balls is arranged, and the coupling section (7.1) has first round grooves (7.2) in the longitudinal direction of the main shaft as the inner raceway for the rolling bearing balls and the outer bearing opening (8.1) has second round grooves (8.2) in the longitudinal direction of the main shaft as the outer raceway for the rolling bearing balls .
An injector assembly for use in a chromatography system , the injector assembly comprising: an injector housing comprising a fluid flow path ; and an injector insert mated to an outlet of the injector housing , the injector insert comprising an inlet and an outlet and a channel that runs from the top surface of the inlet to a bottom surface of the outlet , in which the fluid flow path of the injector housing is fluidically coupled to the top surface of the inlet of the injector insert so that the top surface will be exposed to fluid sample in the fluid flow path of the injector housing , in which the top surface of the inlet of the injector insert comprises an inert metal material, and in which the outlet of the injector insert is configured to receive a column to provide fluidic coupling between the fluid flow path of the injector housing and a fluid flow path of the column to provide analyte through the channel and to the column . an injector housing comprising a fluid flow path ; and an injector insert mated to an outlet of the injector housing , the injector insert comprising an inlet and an outlet and a channel that runs from the top surface of the inlet to a bottom surface of the outlet , in which the fluid flow path of the injector housing is fluidically coupled to the top surface of the inlet of the injector insert so that the top surface will be exposed to fluid sample in the fluid flow path of the injector housing , in which the top surface of the inlet of the injector insert comprises an inert metal material, and in which the outlet of the injector insert is configured to receive a column to provide fluidic coupling between the fluid flow path of the injector housing and a fluid flow path of the column to provide analyte through the channel and to the column .
A female contact , comprising a first elastic arm and a second elastic arm that extend from a rear end (B) toward a front end (F) and are connected to each other, wherein the first elastic arm includes a first contact point and a third contact point , the first contact point being provided at or adjacent the front end (F), and the third contact point being provided rearward of the first contact point and having a smaller protrusion amount than the first contact point , and the second elastic arm includes a second contact point and a fourth contact point , the second contact point being provided at or adjacent the front end (F), and the fourth contact point being provided rearward of the second contact point and having a smaller protrusion amount than the second contact point , characterised in that : the first elastic arm includes a first aperture with which the second contact point is engaged, and the second elastic arm includes a second aperture with which the first contact point is engaged. the first elastic arm includes a first aperture with which the second contact point is engaged, and the second elastic arm includes a second aperture with which the first contact point is engaged.
A combination structure of an annular weir , a nozzle , and a tundish , wherein the annular weir is fixed at a bottom of the tundish and just under the long nozzle of a ladle in a continuous casting apparatus, the annular weir comprising a cavity which has a substantially circular shaped transverse section, the cavity including: an upper side opening configured to receive a stream of molten metal from an upper side through said long nozzle ; an inner protrusion which is annular in shape, the inner protrusion extending toward an inner side from an upper end of an inner wall of said cavity ; a first space on an inner side of said inner protrusion; and a second space which communicates with said first space, the second space being on a lower side of said first space ; wherein an inside diameter of said first space is within a range of 4 times to 5 times a diameter of a discharge hole of said long nozzle, and an inside diameter of said second space is within a range of 1.2 times to 1.5 times the inside diameter of said first space ; and wherein height of said annular weir is within a range of 1/6 to 1/4 of height of a surface of a bath in operation. an upper side opening configured to receive a stream of molten metal from an upper side through said long nozzle ; an inner protrusion which is annular in shape, the inner protrusion extending toward an inner side from an upper end of an inner wall of said cavity ; a first space on an inner side of said inner protrusion; and a second space which communicates with said first space, the second space being on a lower side of said first space ; wherein an inside diameter of said first space is within a range of 4 times to 5 times a diameter of a discharge hole of said long nozzle, and an inside diameter of said second space is within a range of 1.2 times to 1.5 times the inside diameter of said first space ; and wherein height of said annular weir is within a range of 1/6 to 1/4 of height of a surface of a bath in operation.
Use of a powder paint composition for producing aqueous emulsion paints, where the powder paint composition comprises a) at least one water-redispersable polymer powder, b) pigment and filler, c) optionally further adjuvants, and optionally one or more hydraulic binders selected from the group encompassing cement, gypsum, lime, and waterglass, characterized in that the water-redispersable polymer powder is a) a polyvinyl alcohol-stabilized copolymer based on a1) 50 to 95 wt% of vinyl acetate, a2) 1 to 30 wt% of ethylene, a3) 0 to 20 wt% of vinyl esters of long-chain, optionally branched C 3 to C 12 carboxylic acids, a4) 0 to 10 wt% of further ethylenically unsaturated comonomers copolymerizable therewith, the amounts in wt% adding up in each case to 100 wt%, and the polyvinyl alcohol comprises a mixture of at least one polyvinyl alcohol having a degree of hydrolysis of 80 to 95 mol% and a Höppler viscosity (4% aqueous solution, Höppler method at 20°C, DIN 53015) of 1 to 5 mPas and at least one polyvinyl alcohol having a degree of hydrolysis of 80 to 95 mol% and a Höppler viscosity of 6 to 40 mPas, with the proviso that a powder paint composition comprising hydraulic binders comprises 0.1 to 10 wt% of hydraulic binder, based on the total weight of the powder paint composition. where the powder paint composition comprises a) at least one water-redispersable polymer powder, b) pigment and filler, c) optionally further adjuvants, and optionally one or more hydraulic binders selected from the group encompassing cement, gypsum, lime, and waterglass, characterized in that the water-redispersable polymer powder is a) a polyvinyl alcohol-stabilized copolymer based on a1) 50 to 95 wt% of vinyl acetate, a2) 1 to 30 wt% of ethylene, a3) 0 to 20 wt% of vinyl esters of long-chain, optionally branched C 3 to C 12 carboxylic acids, a4) 0 to 10 wt% of further ethylenically unsaturated comonomers copolymerizable therewith, the amounts in wt% adding up in each case to 100 wt%, and the polyvinyl alcohol comprises a mixture of at least one polyvinyl alcohol having a degree of hydrolysis of 80 to 95 mol% and a Höppler viscosity (4% aqueous solution, Höppler method at 20°C, DIN 53015) of 1 to 5 mPas and at least one polyvinyl alcohol having a degree of hydrolysis of 80 to 95 mol% and a Höppler viscosity of 6 to 40 mPas, with the proviso that a powder paint composition comprising hydraulic binders comprises 0.1 to 10 wt% of hydraulic binder, based on the total weight of the powder paint composition.
An eccentric mass vibrating system comprising: a first motor having a first shaft ; a first eccentric mass connected to said first shaft ; a second motor having a second shaft ; a second eccentric mass connected to said second shaft ; said first motor and said second motor are adapted to be associated with an object to be vibrated; said first motor and said second motor being electrically adjustable so as to arrange said first eccentric mass and said second eccentric mass at a predefined angle therebetween; said first motor and said second motor being adapted to be positioned on an object to be vibrated; characterised in that it comprises: at least one sensor associated with said object to be vibrated, wherein said at least one sensor is an accelerometer or an ammeter or a microphone; a control computer of said system adapted to modify said predefined angle if the value measured by said at least one sensor exceeds a predefined value.
A method, comprising: accessing by a mobile station a gateway and transmitting an identification code to the gateway; verifying the identity of the mobile station by the gateway by accessing an authentication centre and comparing variables computed by the mobile station and variables computed by the gateway; verifying by the mobile station the legitimacy of the gateway by comparing variables computed by the mobile station and variables computed by the gateway; creating a shared signing key (SK); requesting by the mobile station a signature verification address from the gateway for facilitating the mobile station to pay for a service provider ; receiving by the mobile station the requested signature verification address from the gateway when the identity of the mobile station has been verified by the gateway; requesting by the mobile station a product or service or access or a right from the service provider; receiving by the mobile station an invoice for the requested product or service or access or right from the service provider; in response to determination that the invoice is correct, transmitting by the mobile station a digital signature created using the shared signing key and accompanied by the signature verification address as approval of the invoice for the product or service or access or right to the service provider; and verifying the digital signatures by a signature verification service at the signature verification address using the shared signing key (SK). accessing by a mobile station a gateway and transmitting an identification code to the gateway; verifying the identity of the mobile station by the gateway by accessing an authentication centre and comparing variables computed by the mobile station and variables computed by the gateway; verifying by the mobile station the legitimacy of the gateway by comparing variables computed by the mobile station and variables computed by the gateway; creating a shared signing key (SK); requesting by the mobile station a signature verification address from the gateway for facilitating the mobile station to pay for a service provider ; receiving by the mobile station the requested signature verification address from the gateway when the identity of the mobile station has been verified by the gateway; requesting by the mobile station a product or service or access or a right from the service provider; receiving by the mobile station an invoice for the requested product or service or access or right from the service provider; in response to determination that the invoice is correct, transmitting by the mobile station a digital signature created using the shared signing key and accompanied by the signature verification address as approval of the invoice for the product or service or access or right to the service provider; and verifying the digital signatures by a signature verification service at the signature verification address using the shared signing key (SK).
A computer-implemented method for processing seismic data comprising the steps of: receiving data representing seismic energy gathered from a formation by a plurality of seismic receivers, wherein the received data d ( t ) includes primary and multiple data; creating a copy of the received data ; compensating the copied data to reduce amplitude attenuation effects due to transmission and absorption losses, wherein amplitude corrections are applied as the inverse of factors TF and QF, where TF is a transmission factor and QF is an absorption factor; applying a multiple prediction algorithm to the received d(t) and compensated d̃ ( t ) data to predict the multiple data, wherein the equation for prediction of multiples b 3 ( k z ) is expressed by: b 3 k z = ∫ − ∞ ∞ b 1 z e ik z z dz ∫ − ∞ z − ε c 1 z 1 e − ik z z 1 dz 1 ∫ z 1 + ε ∞ b 1 z 2 e ik z z 2 dz 2 where k z is the vertical wavenumber, z 1 and z 2 are pseudo-depths, b 1 ( z ) corresponds to an uncollapsed frequency-wavenumber migration of the received data and c 1 ( z 1 ) is computed from compensated data d̃ ( t ) via the transform applied to compute b 1 ( z ) from the received data d ( t ); subtracting the predicted multiple data b 3 ( k z ) from the received data d ( t )and obtain the primary data; and processing the primary data in the received data to reduce attenuation effects. receiving data representing seismic energy gathered from a formation by a plurality of seismic receivers, wherein the received data d ( t ) includes primary and multiple data; creating a copy of the received data ; compensating the copied data to reduce amplitude attenuation effects due to transmission and absorption losses, wherein amplitude corrections are applied as the inverse of factors TF and QF, where TF is a transmission factor and QF is an absorption factor; applying a multiple prediction algorithm to the received d(t) and compensated d̃ ( t ) data to predict the multiple data, wherein the equation for prediction of multiples b 3 ( k z ) is expressed by: b 3 k z = ∫ − ∞ ∞ b 1 z e ik z z dz ∫ − ∞ z − ε c 1 z 1 e − ik z z 1 dz 1 ∫ z 1 + ε ∞ b 1 z 2 e ik z z 2 dz 2 where k z is the vertical wavenumber, z 1 and z 2 are pseudo-depths, b 1 ( z ) corresponds to an uncollapsed frequency-wavenumber migration of the received data and c 1 ( z 1 ) is computed from compensated data d̃ ( t ) via the transform applied to compute b 1 ( z ) from the received data d ( t ); subtracting the predicted multiple data b 3 ( k z ) from the received data d ( t )and obtain the primary data; and processing the primary data in the received data to reduce attenuation effects.
A handheld pulsed laser device for cleaning or treating a surface , comprising: - a laser source , configured to emit a pulsed laser beam , - a focal distance adjuster , configured to change a focal distance (D f ) of the beam, and - a beam deflector , configured to deflect the beam to scan the beam along the surface, - at least one sensor, configured to provide a sensor signal, representative for a parameter that is related to a characteristic of the surface, characterized in that , the device further comprises: - a control unit , configured to control the beam deflector to scan the beam along the surface in an, at least, two-dimensional pattern , based on the sensor signal, wherein, during cleaning or treating of the surface, the focal distance adjuster is configured to periodically vary, upon control by the control unit , the focal distance of the beam around a measured relative distance between the device and the surface. - a laser source , configured to emit a pulsed laser beam , - a focal distance adjuster , configured to change a focal distance (D f ) of the beam, and - a beam deflector , configured to deflect the beam to scan the beam along the surface, - at least one sensor, configured to provide a sensor signal, representative for a parameter that is related to a characteristic of the surface, characterized in that , the device further comprises: - a control unit , configured to control the beam deflector to scan the beam along the surface in an, at least, two-dimensional pattern , based on the sensor signal,
A wall mountable connector comprising: a housing configured to be mounted to a wall and configured to provide a mechanical connection between the wall mountable connector and each of a first thermostat and a second thermostat ; a thermostat connection block configured to electrically connect to the first thermostat when the first thermostat is secured to the housing and configured to electrically connect to the second thermostat when the second thermostat is secured to the housing; a memory configured to be operatively connected to the first thermostat when the first thermostat is electrically connected to the thermostat connection block and configured to be operatively connected to the second thermostat when the second thermostat is electrically connected to the thermostat connection block, wherein the memory is configured to receive and store data, settings, or other information from the first thermostat when the first thermostat is electrically connected to the thermostat connection block, wherein the wall mountable connector is configured to disconnect from the first thermostat and configured to subsequently connect with the second thermostat, wherein the memory is configured to communicate the stored data, settings, or other information to the second thermostat when the second thermostat is secured to the housing and is electrically connected to the thermostat connection block. a housing configured to be mounted to a wall and configured to provide a mechanical connection between the wall mountable connector and each of a first thermostat and a second thermostat ; a thermostat connection block configured to electrically connect to the first thermostat when the first thermostat is secured to the housing and configured to electrically connect to the second thermostat when the second thermostat is secured to the housing; a memory configured to be operatively connected to the first thermostat when the first thermostat is electrically connected to the thermostat connection block and configured to be operatively connected to the second thermostat when the second thermostat is electrically connected to the thermostat connection block, wherein the memory is configured to receive and store data, settings, or other information from the first thermostat when the first thermostat is electrically connected to the thermostat connection block, wherein the wall mountable connector is configured to disconnect from the first thermostat and configured to subsequently connect with the second thermostat, wherein the memory is configured to communicate the stored data, settings, or other information to the second thermostat when the second thermostat is secured to the housing and is electrically connected to the thermostat connection block.