mhurhangee/patent-ind-claim-en huggingface dataset:
A baby wagon with improved ease of use, comprising: a foldable body frame having a rectangular parallelepiped shape so as to support an entire body of the baby wagon , wherein the foldable body frame includes a main frame , a support frame , side frames , a front handle frame , a rear handle frame , and a middle part configured to be folded or unfolded in a forward-rearward direction, such that a shape of the foldable body frame is variable, and wherein the main frame includes upper end biaxial support fixing members , lower end triaxial support fixing members , handle fixing clips , and canopy fixing poles ; a wagon wheel unit fastened to a front lower end and a rear lower end of the foldable body frame in order to move the baby wagon; a seat unit having a shape of a rectangular basket, coupled and fixed to an inner circumference and a lower end of the foldable body frame using snap fasteners, buckles, or Velcro members; and a canopy having rectangular sides and a quadrangular pyramid-shaped roof, the canopy being detachably coupled to an upper end of the foldable body frame, wherein each of the canopy fixing poles includes a pole protrusion fixing screw thread disposed on a lower end thereof and a pole insertion fixing screw thread disposed on an upper end thereof, and wherein the pole protrusion fixing screw thread and the pole insertion fixing screw thread are selectively engaged with a screw thread disposed in a pole insertion fixing hole located in an upper end of the upper end biaxial support fixing member . a foldable body frame having a rectangular parallelepiped shape so as to support an entire body of the baby wagon , wherein the foldable body frame includes a main frame , a support frame , side frames , a front handle frame , a rear handle frame , and a middle part configured to be folded or unfolded in a forward-rearward direction, such that a shape of the foldable body frame is variable, and wherein the main frame includes upper end biaxial support fixing members , lower end triaxial support fixing members , handle fixing clips , and canopy fixing poles ; a wagon wheel unit fastened to a front lower end and a rear lower end of the foldable body frame in order to move the baby wagon; a seat unit having a shape of a rectangular basket, coupled and fixed to an inner circumference and a lower end of the foldable body frame using snap fasteners, buckles, or Velcro members; and a canopy having rectangular sides and a quadrangular pyramid-shaped roof, the canopy being detachably coupled to an upper end of the foldable body frame, wherein each of the canopy fixing poles includes a pole protrusion fixing screw thread disposed on a lower end thereof and a pole insertion fixing screw thread disposed on an upper end thereof, and wherein the pole protrusion fixing screw thread and the pole insertion fixing screw thread are selectively engaged with a screw thread disposed in a pole insertion fixing hole located in an upper end of the upper end biaxial support fixing member .
A leveling device for leveling a feeder platform relative to a die table of a tablet compression machine , wherein the leveling device comprises: a top plate , a bottom plate , and at least three distance sensors ; wherein the top plate and the bottom plate are directly attached to one another and are in contact with one another; wherein the top plate and the bottom plate are rigid; wherein the top plate has a top plate surface and a proximate feeder platform surface; wherein the bottom plate has a die table engaging surface; and wherein the at least three distance sensors are mounted in a non-linear fashion on the proximate feeder platform surface; wherein the at least three distance sensors are mounted approximately perpendicular to the proximate feeder platform surface; wherein the at least three distance sensors are linearly adjustable; wherein the die table engaging surface and the proximate feeder surface are essentially flat and are parallel to each other; and wherein the die table engaging surface and the proximate feeder surface are sized such that when mounted on the tablet compression machine , the die table engaging surface is parallel and proximate to the die table and the proximate feeder platform surface is approximately parallel and proximate to the feeder platform in order to level the feeder platform relative to the die table of a tablet compression machine . a top plate , a bottom plate , and at least three distance sensors ; wherein the top plate and the bottom plate are directly attached to one another and are in contact with one another; wherein the top plate and the bottom plate are rigid; wherein the top plate has a top plate surface and a proximate feeder platform surface; wherein the bottom plate has a die table engaging surface; and wherein the at least three distance sensors are mounted in a non-linear fashion on the proximate feeder platform surface; wherein the at least three distance sensors are mounted approximately perpendicular to the proximate feeder platform surface; wherein the at least three distance sensors are linearly adjustable; wherein the die table engaging surface and the proximate feeder surface are essentially flat and are parallel to each other; and wherein the die table engaging surface and the proximate feeder surface are sized such that when mounted on the tablet compression machine , the die table engaging surface is parallel and proximate to the die table and the proximate feeder platform surface is approximately parallel and proximate to the feeder platform in order to level the feeder platform relative to the die table of a tablet compression machine .
Connector housing for an electrical connector , the housing comprising at least one terminal receptacle for an electric contact element , the terminal receptacle opening into a terminal insertion direction , forming a terminal insertion opening for insertion of the electric contact element , the housing further comprising at least one terminal positioning assurance device which is formed monolithically with the housing and which is accessible from an outside of the housing , the terminal positioning assurance device having an actuator head which, in an unlocked position, is spaced apart from the rest of the housing and, in a locked position, is positively engaged with and protrudes into a lateral opening of the housing , whereby, in the locked position, a terminal locking element , which is operatively coupled to the actuator head , protrudes into at least one terminal receptacle , wherein the terminal positioning assurance device further comprises between the terminal receptacle and the actuator head , a displaceable transmission member , which, in the locked position, is elastically deflected into the terminal receptacle , the displaceable transition member comprising the terminal locking element , wherein the actuator head comprises a locking shoulder , which, in the locked position, is positively locked with a corresponding arresting portion of the housing , the arresting portion of the housing being formed by a rim of the lateral opening , characterized in that, in the locked position, the actuator head presses against the displaceable transmission member in a direction towards the terminal receptacle and the actuator head is positively locked between the displaceable transmission member and the arresting portion of the housing , wherein the displaceable transmission member is formed as a cantilever beam, which extends basically in parallel with the terminal insertion direction from a side of the housing which comprises the terminal insertion opening and extends towards a forward end of the connector housing , and wherein the terminal positioning assurance device has a base and a free end , the base being situated at the forward end of the housing .
Internal combustion engine (E) comprising a coolant circuit (C) wherein coolant is recirculated through a pump (P) and wherein a PH sensor (PHS) is arranged in such a way to sense PH thereof and to signal a deterioration of the coolant requiring a replacement thereof with fresh one on the basis of said PH sensed, the internal combustion engine being characterized in that said PH sensor is operationally connected with a control unit, characterized in that the control unit is arranged to manage an electric signal produced by said PH sensor and to calculate said PH value of the coolant, and configured to carry out said calculation only when the coolant temperature is under a predetermined upper threshold.
A surgical implant (1000; 2000), comprising: an implant body (1005; 2200); and a selectively adjustable assembly attached to the implant body (1005; 2200), having adjustable elements, and operable to cause an expanding and contracting configuration change in a portion of the implant body and, thereby, permit implantation of the implant body within an anatomic orifice to effect a seal therein under normal physiological conditions, wherein the adjustable elements comprise: a circumferentially expandable and contractible cuff (1010; 2210); and an adjustment member looping circumferentially around the cuff (1010; 2210); characterised in that the adjustment member is rotatable to increase and decrease the circumference of the circumferential loop to circumferentially expand and contract the cuff (1010; 2210) an implant body (1005; 2200); and a selectively adjustable assembly attached to the implant body (1005; 2200), having adjustable elements, and operable to cause an expanding and contracting configuration change in a portion of the implant body and, thereby, permit implantation of the implant body within an anatomic orifice to effect a seal therein under normal physiological conditions, wherein the adjustable elements comprise: a circumferentially expandable and contractible cuff (1010; 2210); and an adjustment member looping circumferentially around the cuff (1010; 2210); characterised in that the adjustment member is rotatable to increase and decrease the circumference of the circumferential loop to circumferentially expand and contract the cuff (1010; 2210) a circumferentially expandable and contractible cuff (1010; 2210); and an adjustment member looping circumferentially around the cuff (1010; 2210); characterised in that the adjustment member is rotatable to increase and decrease the circumference of the circumferential loop to circumferentially expand and contract the cuff (1010; 2210)
A method of making a clinker for use in cement production, the method comprising: providing raw meal including silica, aluminum oxide, alkali oxides, calcium oxide and sulfur oxide; wherein the weight fraction of silica in the raw meal is between 40% and 60%; wherein the weight fraction of the aluminum oxide in the raw meal is between 10% and 250; wherein the weight fraction of the alkali metal oxides in the raw meal is between 5% and 150; wherein the weight fraction of the calcium oxide in the raw meal is between 5% and 150; wherein the weight fraction of the sulfur oxide in the raw meal is between 0.5% and 20; wherein the weight fraction of carbon-containing chemical species in the raw meal is less than 1%; firing the raw meal to provide the clinker. providing raw meal including silica, aluminum oxide, alkali oxides, calcium oxide and sulfur oxide; wherein the weight fraction of silica in the raw meal is between 40% and 60%; wherein the weight fraction of the aluminum oxide in the raw meal is between 10% and 250; wherein the weight fraction of the alkali metal oxides in the raw meal is between 5% and 150; wherein the weight fraction of the calcium oxide in the raw meal is between 5% and 150; wherein the weight fraction of the sulfur oxide in the raw meal is between 0.5% and 20; wherein the weight fraction of carbon-containing chemical species in the raw meal is less than 1%; firing the raw meal to provide the clinker.
A polyethylene composition having the following features: 1) density from greater than 0.952 to 0.957 g/cm 3 , preferably from 0.953 to 0.957 g/cm 3 , more preferably from 0.953 to 0.956 g/cm 3 , determined according to ISO 1183 at 23°C; 2) ratio MIF/MIP from 12 to 25 in particular from 15 to 22, where MIF is the melt flow index at 190°C with a load of 21.60 kg, and MIP is the melt flow index at 190°C with a load of 5 kg, both determined according to ISO 1133-1; 3) MIF from 18 to 40 g/10 min., preferably from 20 to 40 g/10 min.; 4) η 0.02 from 30,000 to 55,000 Pa.s, preferably from 36,000 to 55,000 Pa.s., more preferably from 36,000 to 50,000 Pa.s.; wherein η 0.02 is the complex shear viscosity at an angular frequency of 0.02 rad/s, measured with dynamic oscillatory shear in a plate-plate rotational rheometer at a temperature of 190°C; 5) long-chain branching index, LCBI, equal to or greater than 0.55, preferably equal to or greater than 0.60, wherein LCBI is the ratio of the measured mean-square radius of gyration R g , measured by GPC-MALLS, to the mean-square radius of gyration for a linear PE having the same molecular weight; 6) ratio (η 0.02 /1000)/ LCBI, which is between η 0.02 divided by 1000 and LCBI, from 55 to 75, preferably from 55 to 70. 1) density from greater than 0.952 to 0.957 g/cm 3 , preferably from 0.953 to 0.957 g/cm 3 , more preferably from 0.953 to 0.956 g/cm 3 , determined according to ISO 1183 at 23°C; 2) ratio MIF/MIP from 12 to 25 in particular from 15 to 22, where MIF is the melt flow index at 190°C with a load of 21.60 kg, and MIP is the melt flow index at 190°C with a load of 5 kg, both determined according to ISO 1133-1; 3) MIF from 18 to 40 g/10 min., preferably from 20 to 40 g/10 min.; 4) η 0.02 from 30,000 to 55,000 Pa.s, preferably from 36,000 to 55,000 Pa.s., more preferably from 36,000 to 50,000 Pa.s.; wherein η 0.02 is the complex shear viscosity at an angular frequency of 0.02 rad/s, measured with dynamic oscillatory shear in a plate-plate rotational rheometer at a temperature of 190°C; 5) long-chain branching index, LCBI, equal to or greater than 0.55, preferably equal to or greater than 0.60, wherein LCBI is the ratio of the measured mean-square radius of gyration R g , measured by GPC-MALLS, to the mean-square radius of gyration for a linear PE having the same molecular weight; 6) ratio (η 0.02 /1000)/ LCBI, which is between η 0.02 divided by 1000 and LCBI, from 55 to 75, preferably from 55 to 70.
A piezoelectric actuator comprising: a piezoelectric thin film ; and a substrate adapted to support the piezoelectric thin film , wherein the piezoelectric thin film is obtained by adding a donor element to lead zirconate titanate, the donor element is lanthanum, a molar ratio of lead to a total sum of zirconium and titanium is 105% or higher, a molar ratio of lanthanum to the total sum of zirconium and titanium is 6% or more and 10% or less, a molar ratio of zirconium to the total sum of zirconium and titanium is 54% or more and 59% or less, the thickness of the piezoelectric thin film is 1 μm or more and 10 μm or less, and, when positive and negative coercive electric fields in polarization and electric field hysteresis are referred to as Ec (+) and Ec (-), respectively, a value of | Ec (+) |/| Ec (-) | is 0.5 or more and 1.5 or less. a piezoelectric thin film ; and a substrate adapted to support the piezoelectric thin film , wherein the piezoelectric thin film is obtained by adding a donor element to lead zirconate titanate, the donor element is lanthanum, a molar ratio of lead to a total sum of zirconium and titanium is 105% or higher, a molar ratio of lanthanum to the total sum of zirconium and titanium is 6% or more and 10% or less, a molar ratio of zirconium to the total sum of zirconium and titanium is 54% or more and 59% or less, the thickness of the piezoelectric thin film is 1 μm or more and 10 μm or less, and, when positive and negative coercive electric fields in polarization and electric field hysteresis are referred to as Ec (+) and Ec (-), respectively, a value of | Ec (+) |/| Ec (-) | is 0.5 or more and 1.5 or less.
An aircraft tire pressure loop link for electromagnetically coupling a magnetic field between an electromagnetic transceiver coil of a wheel axle and a tire pressure sensor receiver coil spaced apart from the electromagnetic transceiver coil of the wheel axle for powering a tire pressure sensor , comprising: a first single metal loop configured to be mounted on a carrier ring configured to encircle a wheel axle adjacent to the electromagnetic transceiver coil of the wheel axle ; a second single metal loop configured to be mounted adjacent to a tire pressure sensor transceiver coil ; and a pair of spaced apart electrically conductive connecting arms electrically connected between said first single metal loop and said second single metal loop , said pair of spaced apart electrically conductive connecting arms being configured to carry current generated in the first single metal loop from the electromagnetic transceiver coil of the wheel axle to the second single metal loop , whereby current induced in the first single metal loop travels via the pair of spaced apart electrically conductive connecting arms a distance from the electromagnetic transceiver coil of the wheel axle to the second single metal loop , to generate flux in the tire pressure sensor receiver coil for powering the tire pressure sensor , the aircraft tire pressure loop link . a first single metal loop configured to be mounted on a carrier ring configured to encircle a wheel axle adjacent to the electromagnetic transceiver coil of the wheel axle ; a second single metal loop configured to be mounted adjacent to a tire pressure sensor transceiver coil ; and a pair of spaced apart electrically conductive connecting arms electrically connected between said first single metal loop and said second single metal loop , said pair of spaced apart electrically conductive connecting arms being configured to carry current generated in the first single metal loop from the electromagnetic transceiver coil of the wheel axle to the second single metal loop , whereby current induced in the first single metal loop travels via the pair of spaced apart electrically conductive connecting arms a distance from the electromagnetic transceiver coil of the wheel axle to the second single metal loop , to generate flux in the tire pressure sensor receiver coil for powering the tire pressure sensor , the aircraft tire pressure loop link .
A printing apparatus comprising: a conveyance roller configured to convey a sheet in a first direction; an encoder provided at the conveyance roller; a head having a plurality of nozzles aligned in a second direction intersecting with the first direction, and being configured to jet liquid to the sheet which is conveyed in the first direction by the conveyance roller; and a controller having a power circuit (21 to 25) configured to apply voltage to the head for jetting the liquid, wherein the controller is configured to determine a jetting frequency for the head based on a signal outputted from the encoder, characterized in that the controller is configured to change an output voltage of the power circuit depending on the determined jetting frequency; the head further has a memory ; a base voltage value and a plurality of correction values associated respectively with a plurality of jetting frequencies are stored in the memory, for the power circuit; and the controller is configured to: read out, from the memory, the base voltage value and a correction value corresponding to the determined jetting frequency, for the power circuit; and change the output voltage of the power circuit based on the base voltage value and the correction value read out from the memory. a conveyance roller configured to convey a sheet in a first direction; an encoder provided at the conveyance roller; a head having a plurality of nozzles aligned in a second direction intersecting with the first direction, and being configured to jet liquid to the sheet which is conveyed in the first direction by the conveyance roller; and a controller having a power circuit (21 to 25) configured to apply voltage to the head for jetting the liquid, wherein the controller is configured to determine a jetting frequency for the head based on a signal outputted from the encoder, characterized in that the controller is configured to change an output voltage of the power circuit depending on the determined jetting frequency; determine a jetting frequency for the head based on a signal outputted from the encoder, characterized in that the controller is configured to change an output voltage of the power circuit depending on the determined jetting frequency; the head further has a memory ; a base voltage value and a plurality of correction values associated respectively with a plurality of jetting frequencies are stored in the memory, for the power circuit; and the controller is configured to: read out, from the memory, the base voltage value and a correction value corresponding to the determined jetting frequency, for the power circuit; and change the output voltage of the power circuit based on the base voltage value and the correction value read out from the memory. read out, from the memory, the base voltage value and a correction value corresponding to the determined jetting frequency, for the power circuit; and change the output voltage of the power circuit based on the base voltage value and the correction value read out from the memory.
A denture base curable composition in a paste state, comprising: (A) a (meth)acrylic monomer, (B) monomer-absorbing porous organic crosslinked polymer particles capable of absorbing the (meth)acrylic monomer (A), the material for the monomer-absorbing porous organic crosslinked polymer particles (B) being a polyalkyl (meth)acrylate, (C) a polymerization initiator selected from a photo-polymerization initiator and a thermal polymerization initiator, and (D) a (meth)acrylic non-crosslinked polymer, and wherein a content of the monomer-absorbing porous organic crosslinked polymer particles (B) is 20 to 80 parts by mass per 100 parts by mass of the (meth)acrylic monomer (A), wherein a content of the (meth)acrylic non-crosslinked polymer (D) is 5 to 40 parts by mass per 100 parts by mass of the (meth)acrylic monomer (A), and wherein an absorption amount R Ab representing an amount of the (meth)acrylic monomer (A) which of the monomer-absorbing porous organic crosslinked polymer particles (B) can absorb per unit amount is 1.5 or more, with R Ab being defined by the following equation: R Ab = g − A / g − B , wherein g-A (unit: g) represents an amount of the (meth)acrylic monomer (A) absorbed by the monomer-absorbing porous organic crosslinked polymer particles (B) in an amount of g-B (unit: g), and R Ab being measured according to JIS K5101-13-1: 2004. (A) a (meth)acrylic monomer, (B) monomer-absorbing porous organic crosslinked polymer particles capable of absorbing the (meth)acrylic monomer (A), the material for the monomer-absorbing porous organic crosslinked polymer particles (B) being a polyalkyl (meth)acrylate, (C) a polymerization initiator selected from a photo-polymerization initiator and a thermal polymerization initiator, and (D) a (meth)acrylic non-crosslinked polymer, and wherein a content of the monomer-absorbing porous organic crosslinked polymer particles (B) is 20 to 80 parts by mass per 100 parts by mass of the (meth)acrylic monomer (A), wherein a content of the (meth)acrylic non-crosslinked polymer (D) is 5 to 40 parts by mass per 100 parts by mass of the (meth)acrylic monomer (A), and wherein an absorption amount R Ab representing an amount of the (meth)acrylic monomer (A) which of the monomer-absorbing porous organic crosslinked polymer particles (B) can absorb per unit amount is 1.5 or more, with R Ab being defined by the following equation: R Ab = g − A / g − B , wherein g-A (unit: g) represents an amount of the (meth)acrylic monomer (A) absorbed by the monomer-absorbing porous organic crosslinked polymer particles (B) in an amount of g-B (unit: g), and R Ab being measured according to JIS K5101-13-1: 2004.