mhurhangee/patent-ind-claim-en huggingface dataset:
A process for the preparation of a C 1 -C 3 hydroxy compound, comprising the steps of: a) Providing an oxygenate feed composition comprising a C 1 -C 3 oxygenate compound in a total concentration of at least 20% by weight of oxygenate feed composition; and b) Providing a chemical reactor comprising i. an inlet zone in fluid communication with ii. a reaction zone comprising a heterogeneous hydrogenation catalyst material in fluid communication with iii. an outlet zone; then c) feeding the oxygenate feed composition of step a) to the reactor inlet zone i) of step b) to obtain an initial total concentration of C 1 -C 3 oxygenate compound of less than 20% by weight of reactor fluid in the reaction zone ii) of step b); and d) in the reaction zone ii) reacting the C 1 -C 3 -oxygenate compound with hydrogen in the presence of the catalyst material to obtain a C 1 -C 3 hydroxy compound; and then e) Recovering from the outlet zone iii) the hydroxy product composition comprising the C 1 -C 3 hydroxy compound. a) Providing an oxygenate feed composition comprising a C 1 -C 3 oxygenate compound in a total concentration of at least 20% by weight of oxygenate feed composition; and b) Providing a chemical reactor comprising i. an inlet zone in fluid communication with ii. a reaction zone comprising a heterogeneous hydrogenation catalyst material in fluid communication with iii. an outlet zone; then i. an inlet zone in fluid communication with ii. a reaction zone comprising a heterogeneous hydrogenation catalyst material in fluid communication with iii. an outlet zone; then c) feeding the oxygenate feed composition of step a) to the reactor inlet zone i) of step b) to obtain an initial total concentration of C 1 -C 3 oxygenate compound of less than 20% by weight of reactor fluid in the reaction zone ii) of step b); and d) in the reaction zone ii) reacting the C 1 -C 3 -oxygenate compound with hydrogen in the presence of the catalyst material to obtain a C 1 -C 3 hydroxy compound; and then e) Recovering from the outlet zone iii) the hydroxy product composition comprising the C 1 -C 3 hydroxy compound.
A material processing apparatus comprising at least one vibrating component and a vibratory drive system for vibrating said at least one vibrating component, said vibratory drive system comprising a plurality of rotatable drive shafts each carrying at least one mass eccentrically located with respect to the rotational axis of the shaft in order to unbalance the rotation of the shaft, a respective drive mechanism coupled to a respective one of said drive shafts for rotating the respective drive shaft, and a controller for operating at least one of said drive mechanisms to control the rotational speed of the respective drive shaft, wherein said controller is configured to adjust the rotational speed of at least one of said drive shafts to adjust the relative angular position of the respective centre of mass of at least two of said drive shafts, wherein said at least one vibrating component comprises a screening apparatus or a conveyor or a feeder, and has a body with side walls , the drive system being coupled to the body in order to vibrate the body, and wherein each drive shaft extends across the body between the side walls, or longitudinally of the body, and wherein said at least one mass is located at an end of the respective drive shaft, characterized in that at least one of the drive mechanisms comprises a reversible hydraulic motor mounted on an end of the respective shaft and being operable by the controller to rotate the respective drive shaft in either one of two rotational directions. at least one vibrating component and a vibratory drive system for vibrating said at least one vibrating component, said vibratory drive system comprising a plurality of rotatable drive shafts each carrying at least one mass eccentrically located with respect to the rotational axis of the shaft in order to unbalance the rotation of the shaft, a respective drive mechanism coupled to a respective one of said drive shafts for rotating the respective drive shaft, and a controller for operating at least one of said drive mechanisms to control the rotational speed of the respective drive shaft, wherein said controller is configured to adjust the rotational speed of at least one of said drive shafts to adjust the relative angular position of the respective centre of mass of at least two of said drive shafts, wherein said at least one vibrating component comprises a screening apparatus or a conveyor or a feeder, and has a body with side walls , the drive system being coupled to the body in order to vibrate the body, and wherein each drive shaft extends across the body between the side walls, or longitudinally of the body, and wherein said at least one mass is located at an end of the respective drive shaft, characterized in that at least one of the drive mechanisms comprises a reversible hydraulic motor mounted on an end of the respective shaft and being operable by the controller to rotate the respective drive shaft in either one of two rotational directions.
A cooking control method, comprising: (S101) receiving a target temperature and a target time duration; (S102) determining a temperature compensation value corresponding to the target temperature according to a preset relationship between a temperature range and the temperature compensation value, wherein (S102) determining the temperature compensation value corresponding to the target temperature according to the preset relationship between the temperature range and the temperature compensation value comprises: when i<K, if P<M i , determining that δ=δ i , and if M i+1 ≥P≥Mi, determining that δ=δ i+1 ; when i=K, if P<M i , determining that δ=δ i , and if P≥M i , determining that δ=δ i+1 ; wherein P is the target temperature, M i is a preset first step temperature value, δ i is a preset temperature compensation value, i is an integer progressively increasing from 0, K is a number of divided grades, and δ is the temperature compensation value corresponding to the target temperature; (S103) correcting a temperature value of the target temperature according to the temperature compensation value in order to obtain a target temperature threshold parameter; and (S104) controlling a cooking processing according to the target temperature threshold parameter and the target time duration. when i<K, if P<M i , determining that δ=δ i , and if M i+1 ≥P≥Mi, determining that δ=δ i+1 ; when i=K, if P<M i , determining that δ=δ i , and if P≥M i , determining that δ=δ i+1 ; wherein P is the target temperature, M i is a preset first step temperature value, δ i is a preset temperature compensation value, i is an integer progressively increasing from 0, K is a number of divided grades, and δ is the temperature compensation value corresponding to the target temperature; (S103) correcting a temperature value of the target temperature according to the temperature compensation value in order to obtain a target temperature threshold parameter; and (S104) controlling a cooking processing according to the target temperature threshold parameter and the target time duration.
A consumer unit produced from a non-combustible material which, in use, includes openings through which electrical cabling can pass and is lined internally with one or more sheets or strips of silicon cloth coated or lined with an intumescent material which exfoliates in the event of fire to seal all such openings, the consumer unit being characterised in that a sealed thermoplastic tube filled with a liquid extinguishant gas is positioned within the consumer unit, the sealed tube operating to release the liquid extinguishant gas in the event of a fire occuring within the consumer unit to extinguish said fire.
Closed fireplace, having a door and a combustion chamber which can be closed by the door and, in each case, being operatively connected thereto, a combustion air supply duct and an exhaust gas duct which is connected to the outside air, wherein a burner which can be operated with liquid fuel and is connected to at least one container which is filled with a combustible liquid is arranged in the combustion chamber , wherein a pump is connected to the container , by means of which liquid fuel can be guided to the burner , and wherein the burner has a fire pan , characterized in that the fire pan is designed with an igniter and a burner grid which divides the fire pan into a lower early primary combustion zone and an upper late primary combustion zone .
System for the series production of press-hardened and corrosion-protected sheet-metal parts by direct press-hardening of zinc-coated sheet-steel blanks , comprising: - an oven , in which the blanks can be heated to austenizing temperature; - a press-hardening tool , in which the heated blanks can be directly formed and press-hardened; and - a cooling device , with which the blanks heated in the oven can be intermediately cooled before being placed in the press-hardening tool ; characterized in that the cooling device comprises an air nozzle arrangement with a multiplicity of air nozzles, which can be used to produce an air cushion (K) which can carry the blanks and at the same time also allow active intermediate cooling of the blanks , wherein the nozzles of the nozzle arrangement are fixed in place and allow air to be applied from both sides, above and below, so that the blanks can be actively cooled simultaneously from both sides. - an oven , in which the blanks can be heated to austenizing temperature; - a press-hardening tool , in which the heated blanks can be directly formed and press-hardened; and - a cooling device , with which the blanks heated in the oven can be intermediately cooled before being placed in the press-hardening tool ;
Type series of gear-side motor end shields for an angle geared motor , which has a gear housing of an angle gear , in which a toothed wheel is mounted to rotate about a gear shaft axle , and a stator housing of an electric motor , in which a motor shaft having a pinion fastened thereto is rotatably mounted, wherein the gear-side motor end shields each have a gear-side section , to which the gear housing can be fixed, and a motor-side section , permanently connected to the gear-side section , to which the stator housing can be fixed, wherein the gear-side motor end shields each produce a different axial offset between the gear shaft axle and the axle of the motor shaft , characterised in that the type series comprises at least one gear-side motor end shield , which in a first assembly position produces a first axial offset and in a second assembly position, which emanates from the first assembly position due to a rotation of the motor end shield about 180 degrees around the axle of the motor shaft , produces a second axial offset different from the first axial offset.
A hydraulic fluid composition comprising a hydrocarbon component comprising more than 5 wt% of naphthenic oil and from 20 wt% to up to 95 wt% of renewable or recycled isoparaffinic oil, based on the total weight of the composition, wherein the hydrocarbon component consists of the naphthenic oil and the renewable or recycled isoparaffinic oil, and wherein the naphthenic oil means an oil that contains a substantial amount of cyclic saturated hydrocarbon compounds, and the renewable or recycled isoparaffinic oil means an oil containing a substantial amount of isoparaffinic compounds prepared by hydrotreating and isomerizing an oil derived from renewable or recycled raw materials, wherein the renewable or recycled raw materials originate from plants or animal, such as vegetable oils, animal fats, fish oils and mixtures thereof, and the hydraulic fluid composition comprises one or more viscosity index improvers in an amount of 0.01 wt% to 30 wt%, based on the total weight of the composition.
A layered absorbent element for use in a disposable absorbent article, said absorbent element comprising: i) a top layer having a first surface and a second surface said top layer being a fibrous nonwoven layer having a basis weight of from 20 to 100 gsm, and a thickness from 0,25 to 5 mm, said nonwoven layer being formed with fibers having an average length from 26 to 200 mm, said nonwoven layer being selected from needlepunched and hydroentangled nonwoven materials, said nonwoven layer comprising 5 to 70 wt% of multicomponent binder fibers and is thermally bonded by said multicomponent binder fibers, and ii) a bottom layer having a first surface and a second surface, said first surface of said bottom layer being in direct contact with said second surface of said top layer, said bottom layer comprising superabsorbent polymer (SAP) and fibers, wherein said fibers comprise cellulosic fibers, and wherein a plurality of fibers protruding from said first surface of said bottom layer penetrate into said top layer through its second surface, wherein at least some of the plurality of said fibers protruding from said first surface of said bottom layer are bonded to multicomponent binder fibers which are part of said top layer. i) a top layer having a first surface and a second surface said top layer being a fibrous nonwoven layer having a basis weight of from 20 to 100 gsm, and a thickness from 0,25 to 5 mm, said nonwoven layer being formed with fibers having an average length from 26 to 200 mm, said nonwoven layer being selected from needlepunched and hydroentangled nonwoven materials, said nonwoven layer comprising 5 to 70 wt% of multicomponent binder fibers and is thermally bonded by said multicomponent binder fibers, and said nonwoven layer being formed with fibers having an average length from 26 to 200 mm, said nonwoven layer being selected from needlepunched and hydroentangled nonwoven materials, said nonwoven layer comprising 5 to 70 wt% of multicomponent binder fibers and is thermally bonded by said multicomponent binder fibers, ii) a bottom layer having a first surface and a second surface, said first surface of said bottom layer being in direct contact with said second surface of said top layer, said bottom layer comprising superabsorbent polymer (SAP) and fibers, wherein said fibers comprise cellulosic fibers,
A method of controlling attitude of a marine vessel , the method comprising: identifying (102;120) a natural roll frequency of the marine vessel ; measuring (104;122) a roll motion of the marine vessel with an attitude sensor ; determining (106;124) that the roll motion exceeds a threshold roll, where no corresponding steering input is present; determining (108;126) a counteracting drive movement for at least one propulsion device based on the measured roll motion and the natural roll frequency of the marine vessel ; and controlling (110;130) a steering actuator to move the at least one propulsion device to effectuate the counteracting drive movement so as to counteract the roll motion of the marine vessel . identifying (102;120) a natural roll frequency of the marine vessel ; measuring (104;122) a roll motion of the marine vessel with an attitude sensor ; determining (106;124) that the roll motion exceeds a threshold roll, where no corresponding steering input is present; determining (108;126) a counteracting drive movement for at least one propulsion device based on the measured roll motion and the natural roll frequency of the marine vessel ; and controlling (110;130) a steering actuator to move the at least one propulsion device to effectuate the counteracting drive movement so as to counteract the roll motion of the marine vessel .
Painting apparatus for varnishing pencils , in particular wood-cased pencils or pencils having a casing made from a wood substitute material for writing, drawing and/or cosmetic purposes, having at least a first and a second paint container , the at least two paint containers each having an inlet and outlet opening, through which the pencil enters and exits, characterized in that the at least two paint containers being arranged downstream of one another in order to apply paint at least twice to a surface of the pencil in one painting operation, the paint containers being filled with water-based paint or a paint based on organic solvents.
A cable hanger for securing a cable to a supporting structure having an aperture, said cable hanger comprising: a base panel having opposed ends; a pair of arms , each of the arms attached to a respective end of the base panel and having a free end; a pair of locking projections , each of the locking projections attached to a respective free end of the arms; and a pair of gripping members , each gripping member attached to a respective arm, wherein the arms and locking projections are configured to spread apart to enable insertion of a cable between the arms, wherein the gripping members engage and grip the cable, and wherein the locking projections are configured to be inserted into the aperture of the supporting structure; characterized in that each gripping member has opposed ends, wherein one of the ends of each gripping member is fixed to the arms and the other of the ends of each gripping member is fixed to the arm or to the base panel. a base panel having opposed ends; a pair of arms , each of the arms attached to a respective end of the base panel and having a free end; a pair of locking projections , each of the locking projections attached to a respective free end of the arms; and a pair of gripping members , each gripping member attached to a respective arm, wherein the arms and locking projections are configured to spread apart to enable insertion of a cable between the arms, wherein the gripping members engage and grip the cable, and wherein the locking projections are configured to be inserted into the aperture of the supporting structure; characterized in that each gripping member has opposed ends, wherein one of the ends of each gripping member is fixed to the arms and the other of the ends of each gripping member is fixed to the arm or to the base panel.
Glass container having an outer glass surface with an inkjet printed image provided on said surface, characterized in that a water soluble CEC with a thickness from 0,002 to 10 micrometer is present between the outer glass surface and the inkjet printed image and wherein a silica containing layer and a primer layer are present between the CEC and the inkjet printed image.
An ultrasonic generator with an adjustable ultrasonic focusing depth, the ultrasonic generator comprising: a cartridge housing in which an ultrasound generation portion configured to generate ultrasound is provided; a hand piece in which the cartridge housing is detachably mounted, the hand piece having a first actuator thereinside; and a main shaft to which the ultrasound generation portion is coupled moves in a horizontal direction, parallel to the bottom of the cartridge housing and a vertical direction, perpendicular to the bottom of the cartridge housing , wherein one end of the main shaft is coupled to one end of the first actuator of the hand piece , and another end of the main shaft is located inside the cartridge housing , whereby the hand piece includes an adjustment portion configured to adjust an ultrasonic focusing depth (h1, h2, h3) of the ultrasound generation portion by adjusting an amount of movement of the main shaft in the vertical direction. a cartridge housing in which an ultrasound generation portion configured to generate ultrasound is provided; a hand piece in which the cartridge housing is detachably mounted, the hand piece having a first actuator thereinside; and a main shaft to which the ultrasound generation portion is coupled moves in a horizontal direction, parallel to the bottom of the cartridge housing and a vertical direction, perpendicular to the bottom of the cartridge housing , wherein one end of the main shaft is coupled to one end of the first actuator of the hand piece , and another end of the main shaft is located inside the cartridge housing , whereby the hand piece includes an adjustment portion configured to adjust an ultrasonic focusing depth (h1, h2, h3) of the ultrasound generation portion by adjusting an amount of movement of the main shaft in the vertical direction.
A laminate of a casing being integrally made from a first felt layer , a support layer and a waterproof layer , the first felt layer and the support layer both having a first surface and a second surface opposing the first surface , the first surface of the support layer being melted and attached the second surface of the first felt layer , the waterproof layer being attached to the second surface of the support layer , wherein the support layer is made from felt; wherein the first felt layer is water-repellent; the support layer is made from felt and formed by curing a second felt layer; and both of the first felt layer and the second felt layer have low-melting-point fibers and stuffing fibers of specific weigh percentage, the weight percentage of the low-melting-point fibers of the second felt layer is greater than the weight percentage of the low-melting-point fibers of the first felt layer .
A plant container assembly , comprising: a container configured to hold a living plant with a root mass in a growth medium, wherein the growth medium is disposed, in use, in an interior of the container , the container having a top rim around an opening, the plant container assembly further comprising a pliable cover substantially sealed against the container around the top rim , wherein the pliable cover is flexible and can be moved or bent with the application of pressure, wherein the pliable cover , in use, separates the leaf mass of a maturing plant from the root mass and the growth medium disposed within the interior of the container , wherein the pliable cover comprises at least one hole configured to permit the shoot of the living plant to pass through; wherein said at least one hole is smaller than a crown of the living plant during a mature stage of growth of the living plant, with which it is intended to be used, wherein the pliable cover is configured to maintain a substantially sealing contact between an edge of the at least one hole and a stem of the living plant such that the pliable cover imposes a moisture barrier between the interior and an exterior of the container during a growth phase of the living plant, wherein said pliable cover is configured to allow said at least one hole to expand as a result of a pressure exerted by said stem on said at least one hole , characterized in that the container further comprises micro holes configured to permit fluid communication when the container is immersed in water and to prevent plant roots from penetrating from the interior. a container configured to hold a living plant with a root mass in a growth medium, wherein the growth medium is disposed, in use, in an interior of the container , the container having a top rim around an opening, the plant container assembly further comprising a pliable cover substantially sealed against the container around the top rim , wherein the pliable cover is flexible and can be moved or bent with the application of pressure, wherein the pliable cover , in use, separates the leaf mass of a maturing plant from the root mass and the growth medium disposed within the interior of the container , wherein the pliable cover comprises at least one hole configured to permit the shoot of the living plant to pass through; wherein said at least one hole is smaller than a crown of the living plant during a mature stage of growth of the living plant, with which it is intended to be used, wherein the pliable cover is configured to maintain a substantially sealing contact between an edge of the at least one hole and a stem of the living plant such that the pliable cover imposes a moisture barrier between the interior and an exterior of the container during a growth phase of the living plant, wherein said pliable cover is configured to allow said at least one hole to expand as a result of a pressure exerted by said stem on said at least one hole , characterized in that the container further comprises micro holes configured to permit fluid communication when the container is immersed in water and to prevent plant roots from penetrating from the interior.