mhurhangee/patent-ind-claim-en huggingface dataset:
A memory insertion machine comprising: one or more insertion rods movably mounted to one or more vertical guides ; and an insertion controller , wherein the insertion controller is configured to: apply, by controlling movement of the one or more insertion rods on the one or more vertical guides , an insertion force to a memory module in a memory socket , wherein the movement of the one or more insertion rods has a gradually decreasing deceleration as the insertion rods move towards the memory socket , characterised in that the insertion controller includes an electronic simulated cam configured to drive linear motion of the one or more insertion rods according to the gradually decreasing deceleration. one or more insertion rods movably mounted to one or more vertical guides ; and an insertion controller , wherein the insertion controller is configured to: apply, by controlling movement of the one or more insertion rods on the one or more vertical guides , an insertion force to a memory module in a memory socket , wherein the movement of the one or more insertion rods has a gradually decreasing deceleration as the insertion rods move towards the memory socket , characterised in that the insertion controller includes an electronic simulated cam configured to drive linear motion of the one or more insertion rods according to the gradually decreasing deceleration. apply, by controlling movement of the one or more insertion rods on the one or more vertical guides , an insertion force to a memory module in a memory socket , wherein the movement of the one or more insertion rods has a gradually decreasing deceleration as the insertion rods move towards the memory socket , characterised in that the insertion controller includes an electronic simulated cam configured to drive linear motion of the one or more insertion rods according to the gradually decreasing deceleration.
A vane stage comprising: an arcuate platform defining an axial centerline axis having a pair of flanges that extend radially inward from the platform, wherein the flanges are axially spaced apart from one another and from respective forward and aft ends of the platform and wherein each flange includes at least two through holes ; a vane extending radially outward from the platform; a seal carrier mounted axially between the flanges so that inner surfaces of the flanges interface with outer surfaces of the seal carrier; and a washer mounted to the seal carrier opposite one of the flanges of the platform across an axial thickness of a side of the seal carrier, wherein a portion of the seal carrier between the washer and flange includes at least two through holes in an axial direction for receiving respective fasteners , and wherein the washer includes a pair of through holes that correspond to respective pairs of holes in the platform flanges and the seal carrier . an arcuate platform defining an axial centerline axis having a pair of flanges that extend radially inward from the platform, wherein the flanges are axially spaced apart from one another and from respective forward and aft ends of the platform and wherein each flange includes at least two through holes ; a vane extending radially outward from the platform; a seal carrier mounted axially between the flanges so that inner surfaces of the flanges interface with outer surfaces of the seal carrier; and a washer mounted to the seal carrier opposite one of the flanges of the platform across an axial thickness of a side of the seal carrier, wherein a portion of the seal carrier between the washer and flange includes at least two through holes in an axial direction for receiving respective fasteners , and wherein the washer includes a pair of through holes that correspond to respective pairs of holes in the platform flanges and the seal carrier .
The device for conversion of wave energy into electrical energy, wherein the device comprises a supporting construction , consisting of buoyancy elements having a star-shape or cylindrical shape, with a supporting tube fixed to the top of the supporting construction , wherein the supporting tube comprises a joint gear having a gliding connection on the inner circumference with the outside surface of the supporting tube , while a sphere is hinged or tightly fixed at its outside circumference to a floating body , whereby the device has two gears, the first, flexible gear used for connecting the floating body to the second gear, wherein the flexible gear comprises a flexible element in the form of a rope, a cable or the like, and at least two upper pulleys , whereby the at least two upper pulleys are fixed to the supporting tube by means of their supports above the end point of the working stroke of the floating body , so that they can rotate and a middle pulley is by means of its support fixed to the second gear that connects the flexible gear to the electric generator having additional mass connected with the lower tube of the supporting construction in the sliding manner, whereby the supporting construction is coupled to the anchor weight by ropes that can be positioned in the bearing in the anchor base , characterized in that the flexible element of the flexible gear , e.g. a cable, is coupled to the floating body at one end, then passed over a first of the at least two upper pulleys and over the middle pulley inside the supporting tube and over a second of the at least two upper pulleys and by the other end again connected to the floating body or the flexible gear is composed of two identical flexible elements having one end attached to the floating body and one flexible element of the gear goes over a first of the at least two upper pulleys while the other flexible element of the gear goes over a second of the at least two upper pulleys and by the other end they are mutually connected by a lever pivotally attached to one end of the second rigid gear and the connecting points of the flexible gear and the floating body as well as the two upper pulleys are mutually opposite and wherein at the end of the buoyancy element , at the upper tube side a casing is placed and the flexible ropes are at one end attached to the buoyancy element and to the floating body at the other end.
An installation apparatus for a load-coupling of a turbine system , the installation apparatus comprising: a plurality of rails configured to extend axially through a portion of a diffuser of the turbine system , each of the plurality of rails including: a first distal end configured to be positioned within and releasably coupled to the diffuser ; and a second distal end positioned opposite the first distal end ; and at least one trolley positioned on the plurality of rails , the at least one trolley including: a plurality of wheel housings each wheel housing including at least one wheel moving over a corresponding rail of the plurality of rails ; and a cradle component positioned partially within each of the plurality of wheel housings , the cradle component configured for receiving the load-coupling of the turbine system. a plurality of rails configured to extend axially through a portion of a diffuser of the turbine system , each of the plurality of rails including: a first distal end configured to be positioned within and releasably coupled to the diffuser ; and a second distal end positioned opposite the first distal end ; and a first distal end configured to be positioned within and releasably coupled to the diffuser ; and a second distal end positioned opposite the first distal end ; and at least one trolley positioned on the plurality of rails , the at least one trolley including: a plurality of wheel housings each wheel housing including at least one wheel moving over a corresponding rail of the plurality of rails ; and a cradle component positioned partially within each of the plurality of wheel housings , the cradle component configured for receiving the load-coupling of the turbine system. a plurality of wheel housings each wheel housing including at least one wheel moving over a corresponding rail of the plurality of rails ; and a cradle component positioned partially within each of the plurality of wheel housings , the cradle component configured for receiving the load-coupling of the turbine system.
A conveyance device comprising: a tray on an upper surface of the conveyance device , configured to receive a sheet (P); and an upper guide below the tray , configured to define a conveyance path in which the sheet (P) is conveyed, the upper guide being movable together with the tray to open the conveyance path , characterized in that the conveyance device further comprises: a tray unit integrally constructed of the tray and the upper guide , a front side of the tray unit being movable in a vertical direction around a rear side of the tray unit serving as a rotation fulcrum; and a rear frame behind the tray unit , wherein a gap is disposed between a rear face of the tray unit and the rear frame , and wherein a step is formed between the tray unit and the rear frame when the front side of the tray unit is lifted. a tray on an upper surface of the conveyance device , configured to receive a sheet (P); and an upper guide below the tray , configured to define a conveyance path in which the sheet (P) is conveyed, the upper guide being movable together with the tray to open the conveyance path , characterized in that the conveyance device further comprises: a tray unit integrally constructed of the tray and the upper guide , a front side of the tray unit being movable in a vertical direction around a rear side of the tray unit serving as a rotation fulcrum; and a rear frame behind the tray unit , wherein a gap is disposed between a rear face of the tray unit and the rear frame , and wherein a step is formed between the tray unit and the rear frame when the front side of the tray unit is lifted. a tray unit integrally constructed of the tray and the upper guide , a front side of the tray unit being movable in a vertical direction around a rear side of the tray unit serving as a rotation fulcrum; and a rear frame behind the tray unit , wherein a gap is disposed between a rear face of the tray unit and the rear frame , and wherein a step is formed between the tray unit and the rear frame when the front side of the tray unit is lifted.
Fracturing fluid comprising, in an aqueous medium: - an associative polymer; and - a labile surfactant bearing a cleavable function that is an ester function, in an amount sufficient to reduce or inhibit the effect of increasing the viscosity induced by said associative polymer; wherein the labile surfactant is of the following formula: wherein the associative polymer comprises a backbone of hydrophilic nature and includes, along the chains and/or at all or some of the ends thereof, amounts of the order of 0.001 mol% to 10 mol% of functions of hydrophobic nature, wherein the associative polymer is present in an amount of 0.1% to 3% by weight relative to the total weight of the fracturing fluid, and wherein the associative polymer and the concentration of the labile surfactant are chosen so that the viscosity of the fracturing fluid is kept reduced during the injection of the fracturing fluid to a zone where it is desired to carry out the fracturing, the viscosity being kept reduced compared to the viscosity that the fracturing fluid would have without the labile surfactant. - an associative polymer; and - a labile surfactant bearing a cleavable function that is an ester function, in an amount sufficient to reduce or inhibit the effect of increasing the viscosity induced by said associative polymer; wherein the labile surfactant is of the following formula: wherein the associative polymer comprises a backbone of hydrophilic nature and includes, along the chains and/or at all or some of the ends thereof, amounts of the order of 0.001 mol% to 10 mol% of functions of hydrophobic nature, wherein the associative polymer is present in an amount of 0.1% to 3% by weight relative to the total weight of the fracturing fluid, and wherein the associative polymer and the concentration of the labile surfactant are chosen so that the viscosity of the fracturing fluid is kept reduced during the injection of the fracturing fluid to a zone where it is desired to carry out the fracturing, the viscosity being kept reduced compared to the viscosity that the fracturing fluid would have without the labile surfactant.
A method for preparing an aliphatic isocyanate comprising a step of reacting a salt of aliphatic amine with phosgene, wherein the reaction step comprises a first reaction step in which phosgene is primarily added and reacted with the salt of an aliphatic amine at a temperature of 80 to 100°C, and a second reaction step in which phosgene is secondarily added and reacted with the resultant product of the first reaction step at a temperature of 120 to 160°C, and wherein the amount of the primarily added phosgene is 10 to 30% by weight of the total amount of the primarily and secondarily added phosgene. wherein the reaction step comprises a first reaction step in which phosgene is primarily added and reacted with the salt of an aliphatic amine at a temperature of 80 to 100°C, and a second reaction step in which phosgene is secondarily added and reacted with the resultant product of the first reaction step at a temperature of 120 to 160°C, and wherein the amount of the primarily added phosgene is 10 to 30% by weight of the total amount of the primarily and secondarily added phosgene.
Heat exchanger for vaporizing a refrigerant fluid by exchange of heat with a thermogenic fluid, said exchanger comprising: - several parallel plates extending parallel to a second direction (x) and between them defining a plurality of passages designed for the flow of the refrigerant fluid or of the thermogenic fluid, - a first corrugated fin and a second corrugated fin extending between two successive plates in such a way as to define, within the one same passage , a plurality of channels extending overall parallel to a first direction (z) orthogonal to the second direction (x), said first and second corrugated fins comprising two adjacent edges extending parallel to the second direction (x), - at least one assembly member extending on each side of the edges so as to join said corrugated fins together, characterized in that the assembly member is forcibly engaged, on the one hand, in at least part of a channel of the first corrugated fin and, on the other hand, in at least part of a channel of the second corrugated fin , said assembly member being cylindrical in shape, extending parallel to the first direction (z) and having, prior to engagement, a given outside diameter, the ratios between the width of the channels , measured in the second direction (x), and said outside diameter being comprised between 100 and 70%. - several parallel plates extending parallel to a second direction (x) and between them defining a plurality of passages designed for the flow of the refrigerant fluid or of the thermogenic fluid, - a first corrugated fin and a second corrugated fin extending between two successive plates in such a way as to define, within the one same passage , a plurality of channels extending overall parallel to a first direction (z) orthogonal to the second direction (x), said first and second corrugated fins comprising two adjacent edges extending parallel to the second direction (x), - at least one assembly member extending on each side of the edges so as to join said corrugated fins together,
A kitchen appliance comprising a main body and a kitchen appliance accessory for engaging with the main body , the kitchen appliance accessory comprising: a first housing portion comprising an inner surface carrying first slanted engagement members and an outer surface carrying a plurality of locking ribs for locking the kitchen appliance accessory onto the main body of the kitchen appliance ; and a second housing portion comprising an outer surface carrying further slanted engagement members and a bottom surface opposing a main surface of said main body and separated from said main surface by a clearance having a clearance height (B) when the kitchen appliance accessory is locked onto said main body; wherein the second housing portion is rotatably lockable onto the first housing portion by engagement of the first slanted engagement members with the further slanted engagement members, characterized in that said engagement causes a vertical displacement of the second housing portion towards the first housing portion by a vertical displacement distance (A) exceeding said clearance height (B). a first housing portion comprising an inner surface carrying first slanted engagement members and an outer surface carrying a plurality of locking ribs for locking the kitchen appliance accessory onto the main body of the kitchen appliance ; and a second housing portion comprising an outer surface carrying further slanted engagement members and a bottom surface opposing a main surface of said main body and separated from said main surface by a clearance having a clearance height (B) when the kitchen appliance accessory is locked onto said main body; wherein the second housing portion is rotatably lockable onto the first housing portion by engagement of the first slanted engagement members with the further slanted engagement members, characterized in that said engagement causes a vertical displacement of the second housing portion towards the first housing portion by a vertical displacement distance (A) exceeding said clearance height (B).
A therapeutic combination for use in a method for the treatment of a cancer expressing ErbB2, wherein the method comprises administering a therapeutic combination as a combined formulation or by alternation to a mammal, wherein the therapeutic combination comprises a therapeutically effective amount of trastuzumab-MCC-DMl, and a therapeutically effective amount of lapatinib, wherein administration of the therapeutic combination results in a synergistic effect in a BT-474 cancer model.
A biosensor electrode comprising: a. a polymeric film substrate; and b. a conductive layer disposed adjacent the substrate; c. wherein the conductive layer consists of krypton and a conductive material, wherein the conductive material is aluminum, cobalt, copper, indium, iridium, iron, magnesium, nickel, niobium, osmium, platinum, rhenium, rhodium, selenium, silver, tantalum, tin, titanium, vanadium, zirconium, mixtures thereof, alloys of any of these elements, oxides of any of these elements, or metallic compounds of any of these elements; d. wherein the conductive layer has an average thickness of no greater than 150 nanometers; e. wherein the conductive layer has a scratch resistance of not greater than 87 microns in width, wherein scratch resistance is determined by scratching the conductive layer using an Erichsen Hardness Test Pencil model 308S under a 0.5 N load; and f. wherein krypton is present in the conductive layer in an amount of at least 1×10 14 Atoms/cm 3 at a depth of 5 nanometers as measured according to SIMS. a. a polymeric film substrate; and b. a conductive layer disposed adjacent the substrate; c. wherein the conductive layer consists of krypton and a conductive material, wherein the conductive material is aluminum, cobalt, copper, indium, iridium, iron, magnesium, nickel, niobium, osmium, platinum, rhenium, rhodium, selenium, silver, tantalum, tin, titanium, vanadium, zirconium, mixtures thereof, alloys of any of these elements, oxides of any of these elements, or metallic compounds of any of these elements; d. wherein the conductive layer has an average thickness of no greater than 150 nanometers; e. wherein the conductive layer has a scratch resistance of not greater than 87 microns in width, wherein scratch resistance is determined by scratching the conductive layer using an Erichsen Hardness Test Pencil model 308S under a 0.5 N load; and f. wherein krypton is present in the conductive layer in an amount of at least 1×10 14 Atoms/cm 3 at a depth of 5 nanometers as measured according to SIMS.
A method of operating a vehicle , comprising detecting , by a motion sensor, a motion during a time period in a space surrounding the vehicle within a predetermined distance of the vehicle to allow detection of persisting threat during this time period, capturing images, by a camera, during this time period of at least a part of the space surrounding the vehicle to allow detection of persisting threat during this time period, detecting from the motion and the images a presence of a threat to the vehicle , determining a reaction of the vehicle depending on the threat, detecting a presence or an absence of an occupant inside the vehicle , determining a vehicle parking state, starting , by a vehicle control device , the reaction autonomously in case of absence of any occupant inside the vehicle and when the vehicle is in the vehicle wherein the reaction comprises detecting a well-lit area, parking state, autonomously driving the vehicle to a location associated with the well-lit area and parking the vehicle at the well-lit area autonomously by the vehicle control device . detecting , by a motion sensor, a motion during a time period in a space surrounding the vehicle within a predetermined distance of the vehicle to allow detection of persisting threat during this time period, capturing images, by a camera, during this time period of at least a part of the space surrounding the vehicle to allow detection of persisting threat during this time period, detecting from the motion and the images a presence of a threat to the vehicle , determining a reaction of the vehicle depending on the threat, detecting a presence or an absence of an occupant inside the vehicle , determining a vehicle parking state, starting , by a vehicle control device , the reaction autonomously in case of absence of any occupant inside the vehicle and when the vehicle is in the vehicle wherein the reaction comprises detecting a well-lit area, parking state, autonomously driving the vehicle to a location associated with the well-lit area and parking the vehicle at the well-lit area autonomously by the vehicle control device .