mhurhangee/patent-ind-claim-en huggingface dataset:
A plate for an article of footwear , the plate comprising: a substrate ; a first strand portion attached to the substrate via first stitching and including first segments that each extend between two different locations along the substrate to form a first layer on the substrate ; a posterior-most point disposed closer to a heel region of the article of footwear than the anterior-most point ; a polymeric resin consolidating the first strand portion , the second strand portion , and the substrate to form a composite when heat and pressure are applied, a second strand portion disposed on the first layer and including second segments that each extend between two different locations along the substrate to form a second layer on the first layer ; an anterior-most point disposed in a forefoot region of the article of footwear ; and a concave portion extending between the anterior-most point and the posterior-most point and including a constant radius of curvature from the anterior-most point to a metatarsophalangeal (MTP) point of the article of footwear , the MTP point opposing the MTP joint of a foot during use. a substrate ; a first strand portion attached to the substrate via first stitching and including first segments that each extend between two different locations along the substrate to form a first layer on the substrate ; a posterior-most point disposed closer to a heel region of the article of footwear than the anterior-most point ; a polymeric resin consolidating the first strand portion , the second strand portion , and the substrate to form a composite when heat and pressure are applied, a second strand portion disposed on the first layer and including second segments that each extend between two different locations along the substrate to form a second layer on the first layer ; an anterior-most point disposed in a forefoot region of the article of footwear ; and a concave portion extending between the anterior-most point and the posterior-most point and including a constant radius of curvature from the anterior-most point to a metatarsophalangeal (MTP) point of the article of footwear , the MTP point opposing the MTP joint of a foot during use.
An AI-Mg-based or AI-Mg-Si-based or Al-Zn-based or Al-Si-based starting material in the form of a powder or wire for an additive manufacturing process, having from 0.5 to 1.5 wt% iron (Fe), at most 0.9 wt% manganese (Mn), optionally silicon (Si), optionally magnesium (Mg), optionally copper (Cu), optionally zinc (Zn), wherein the content of manganese (Mn) and iron (Fe) fulfills the ordering relation wt % Mn > A + 0.15 wt % Fe with A = 2000 ∗ TLfcc 575 − 1 4 TLfcc = 660 − 6.6 * wt % Si − 5.3 * wt % Mg − 3.6 * wt % Cu − 2 * wt % Zn , and optional having 0.1 to 2 wt% scandium (Sc) and/or erbium (Er), 0.1 to 3 wt% lithium (Li), 0 to 2 wt% nickel (Ni), 0 to 1 wt% silver (Ag), beryllium (Be), cobalt (Co), chromium (Cr), hafnium (Hf), molybdenum (Mo), niobium (Nb), titanium (Ti), vanadium (V), zirconium (Zr), tantalum (Ta), yttrium (Y) individually or in a combination and residual aluminum (Al) and inevitable manufacturing induced impurities.
A pneumatic tire comprising a belt composed of at least three belt layers on the tire radial-direction outer side of a carcass , wherein a reinforcing material of at least an outermost belt layer among the at least three belt layers is a steel cord which has a layer-twisted structure comprising a core composed of two core filaments having a circular cross section and a sheath composed of eight sheath filaments that are twisted together around the core , the two core filaments are twisted together, and a steel cord amount in the outermost belt layer , which is represented by the following Equation , is 37 to 49: Steel cord diameter mm × Steel cord end count steel cords / 50 mm characterised in that : the twisting direction of the core filaments is different from the twisting direction of the sheath filaments (2.
Stacking device for a continuous formation of stacks (12a-f) from bags that are continuously fed in at least one string of bags (16a; c-f) comprising at least one row of bags , which is endless and/or is severed respectively after a defined number of bags , with at least one stack support (24a-f, 24'a; b) that is, at least during the formation of a stack (12a-f), moved back and forth in a stacking movement (22a-e, 22'a) parallel to a stacking layer direction , with a bag feeding means (26a-d, f) that deposits the at least one string of bags (16a; d-f) on the stack support (24a-f, 24'a; b) in such a way that the string of bags (16a; d-f) is bent at least substantially due to the stacking movement (22a-e) respectively after a number of bags forming a stacking layer (28a; c-d) and forms zigzag-shaped stacking layers (28a; c-d), or that the string of bags (16a; d-f) is piled up at least substantially due to the stacking movement (22a-e, 22'a) in stacking layers (28a; c-d) comprising the number of bags that form the stacking layer (28a; c-d) and having a consistent bag orientation, and with at least one stack transporting means (30a; c-d) for a transport of the stacks (12a-f) out of the influence zone of the stacking movement (22a-e, 22'a) once a defined number of stacking layers has been reached, with a first drive unit (32a-e, 32'a, b), which is configured to drive at least one stacking movement (22a-e), and with a further drive unit (32'a-e, 32a, b), which is configured to drive at least one transport movement (34a-e, 34'a) of at least one stack transporting means (30a-e, 30'a, b).
A heating device that includes a heater configured to heat an item to be heated , a temperature detection unit configured to detect a temperature of the item to be heated , and a temperature adjustment unit configured to control the heater on the basis of a detected value of the temperature detection unit and a target temperature so that the temperature of the item to be heated reaches the target temperature, the heating device comprising: a system gain change rate calculation unit configured to obtain a temperature increase value of the item to be heated from the detected value of the temperature detection unit , obtain a system gain, which is a ratio of the temperature increase value of the item to be heated with respect to electric power inputted to the heater , and obtain, as a system gain change rate, a rate of change from an initial value of the system gain; a heater resistance value change rate calculation unit configured to obtain a resistance value of the heater from a voltage and a current applied to the heater and obtain, as a heater resistance value change rate "c", a rate of change from an initial value of the resistance value; a heater voltage change rate calculation unit configured to obtain, as a heater voltage change rate "b", a rate of change from an initial value of a voltage applied to the heater ; and a heat-retaining property change rate calculation unit configured to obtain a rate of change rate "a" in heat-retaining properties of the item to be heated from the system gain change rate "d", the heater resistance value change rate "c", and the heater voltage change rate "b", wherein the rate of change "a" in heat-retaining properties is obtained using the following equation: a=cd/b 2 . a system gain change rate calculation unit configured to obtain a temperature increase value of the item to be heated from the detected value of the temperature detection unit , obtain a system gain, which is a ratio of the temperature increase value of the item to be heated with respect to electric power inputted to the heater , and obtain, as a system gain change rate, a rate of change from an initial value of the system gain; a heater resistance value change rate calculation unit configured to obtain a resistance value of the heater from a voltage and a current applied to the heater and obtain, as a heater resistance value change rate "c", a rate of change from an initial value of the resistance value; a heater voltage change rate calculation unit configured to obtain, as a heater voltage change rate "b", a rate of change from an initial value of a voltage applied to the heater ; and a heat-retaining property change rate calculation unit configured to obtain a rate of change rate "a" in heat-retaining properties of the item to be heated from the system gain change rate "d", the heater resistance value change rate "c", and the heater voltage change rate "b", wherein the rate of change "a" in heat-retaining properties is obtained using the following equation: a=cd/b 2 .
A laminate comprising: a layer (A) comprising a resin not having active hydrogen in a main molecular skeleton thereof; and an adhesive layer (B) being at least in partial contact with the layer (A) and comprising a composition for adhesion, wherein the composition for adhesion satisfies the following requirements (i) to (iii): (i) comprising a polyolefin being a product of reaction between a polyolefin (a) having a group that reacts with a carbodiimide group and a carbodiimide group-containing compound (b); (ii) comprising a carbodiimide group in an amount of 0.1 to 50 mmol per 100 g of the composition for adhesion; and (iii) having a density of 0.870 to 0.940 g/cm 3 , characterized in that the layer (A) is a layer (A1) comprising a polyketone or a layer (A2) comprising a polyphenylene sulfide. a layer (A) comprising a resin not having active hydrogen in a main molecular skeleton thereof; and an adhesive layer (B) being at least in partial contact with the layer (A) and comprising a composition for adhesion, wherein the composition for adhesion satisfies the following requirements (i) to (iii): (i) comprising a polyolefin being a product of reaction between a polyolefin (a) having a group that reacts with a carbodiimide group and a carbodiimide group-containing compound (b); (ii) comprising a carbodiimide group in an amount of 0.1 to 50 mmol per 100 g of the composition for adhesion; and (iii) having a density of 0.870 to 0.940 g/cm 3 , (i) comprising a polyolefin being a product of reaction between a polyolefin (a) having a group that reacts with a carbodiimide group and a carbodiimide group-containing compound (b); (ii) comprising a carbodiimide group in an amount of 0.1 to 50 mmol per 100 g of the composition for adhesion; and (iii) having a density of 0.870 to 0.940 g/cm 3 , characterized in that the layer (A) is a layer (A1) comprising a polyketone or a layer (A2) comprising a polyphenylene sulfide.
A method for fabricating an object , comprising: (a) irradiating a layer of powder in a powder bed to form a fused region; (b) providing a subsequent layer of powder over the powder bed by passing a recoater arm over the powder bed from a first side of the powder bed ; (c) repeating steps (a) and (b) until the object and at least one support structure is formed in the powder bed , wherein the at least one support structure and the object have a first orientation, wherein the object comprises an outlet ; (d) rotating the support structure to a second orientation; and (e) removing the support structure from the object by passing the support structure through the outlet of the object ; wherein the support structure is incapable of passing through the outlet in the first orientation prior to rotating the removable support structure to the second orientation, due to the geometry of the support structure and geometry of the object . (a) irradiating a layer of powder in a powder bed to form a fused region; (b) providing a subsequent layer of powder over the powder bed by passing a recoater arm over the powder bed from a first side of the powder bed ; (c) repeating steps (a) and (b) until the object and at least one support structure is formed in the powder bed , wherein the at least one support structure and the object have a first orientation, wherein the object comprises an outlet ; (d) rotating the support structure to a second orientation; and (e) removing the support structure from the object by passing the support structure through the outlet of the object ; wherein
A foamed article obtained by a method comprising: a) injection molding a molten thermoplastic elastomer to form a precursor; b) crosslinking the thermoplastic elastomer; c) heating the thermoplastic elastomer to a first temperature to soften the thermoplastic elastomer; d) infusing the thermoplastic elastomer with at least one inert gas at a first pressure that is sufficient to cause the at least one inert gas to permeate into the softened thermoplastic elastomer; and e) while the thermoplastic elastomer is softened, reducing the pressure to a second pressure below the first pressure to at least partially foam the precursor into a foamed article; wherein the foamed article is substantially the same shape as the precursor; wherein the precursor is formed to include a cavity; and wherein the method further comprises placing an insert comprising a thermoplastic polymer in the cavity of the precursor. a) injection molding a molten thermoplastic elastomer to form a precursor; b) crosslinking the thermoplastic elastomer; c) heating the thermoplastic elastomer to a first temperature to soften the thermoplastic elastomer; d) infusing the thermoplastic elastomer with at least one inert gas at a first pressure that is sufficient to cause the at least one inert gas to permeate into the softened thermoplastic elastomer; and e) while the thermoplastic elastomer is softened, reducing the pressure to a second pressure below the first pressure to at least partially foam the precursor into a foamed article; wherein the foamed article is substantially the same shape as the precursor; wherein the precursor is formed to include a cavity; and wherein the method further comprises placing an insert comprising a thermoplastic polymer in the cavity of the precursor.
Heating, ventilation and/or air-conditioning installation for a motor vehicle passenger compartment including a casing comprising: - a first air intake duct , - a first air distribution duct comprising at least one first air outlet in the passenger compartment that is in communication with the first air intake duct , and - a second air distribution duct including a second air outlet , said installation further comprises a second intake duct used exclusively for a second recirculated air stream (FR2) coming from the passenger compartment and that is in aeraulic communication with the second air distribution duct so that the second air distribution duct is supplied only by the second recirculated air stream (FR2) coming from the second air intake duct , characterized in that the casing includes a first intake vent for bringing an outside air stream (FE) and a second intake vent for bringing a first recirculated air stream (FR1) into the first air intake duct . - a first air intake duct , - a first air distribution duct comprising at least one first air outlet in the passenger compartment that is in communication with the first air intake duct , and - a second air distribution duct including a second air outlet , said installation further comprises a second intake duct used exclusively for a second recirculated air stream (FR2) coming from the passenger compartment and that is in aeraulic communication with the second air distribution duct so that the second air distribution duct is supplied only by the second recirculated air stream (FR2) coming from the second air intake duct , characterized in that the casing includes a first intake vent for bringing an outside air stream (FE) and a second intake vent for bringing a first recirculated air stream (FR1) into the first air intake duct .
Method for determining state values of an electrical energy supply network when controlling and monitoring the energy supply network, in which - node voltages indicating electrical voltages at the respective nodes of the energy supply network are determined using exogenous input signals indicating an ambient state present in the region of a respective node of the energy supply network ; wherein - a state estimation device comprising an artificial mathematical system is used to determine the node voltages, characterized in that - the state estimation device comprises a first artificial mathematical system and a second artificial mathematical system , wherein the first and second artificial mathematical systems are neural networks which are nested in one another in such a manner that the first artificial mathematical system uses the output values from the second artificial mathematical system as input values, wherein - power values each indicating an electrical power fed in and/or output at at least two nodes of the energy supply network are first of all determined from the exogenous input signals using the second artificial mathematical system , and - the node voltages are then directly determined from the power values present at the input of the first artificial mathematical system using the latter and are output at the output thereof, wherein the first artificial mathematical system is designed to solve an inverse power flow representation. - node voltages indicating electrical voltages at the respective nodes of the energy supply network are determined using exogenous input signals indicating an ambient state present in the region of a respective node of the energy supply network ; wherein - a state estimation device comprising an artificial mathematical system is used to determine the node voltages, - the state estimation device comprises a first artificial mathematical system and a second artificial mathematical system , wherein the first and second artificial mathematical systems are neural networks which are nested in one another in such a manner that the first artificial mathematical system uses the output values from the second artificial mathematical system as input values, wherein - power values each indicating an electrical power fed in and/or output at at least two nodes of the energy supply network are first of all determined from the exogenous input signals using the second artificial mathematical system , and - the node voltages are then directly determined from the power values present at the input of the first artificial mathematical system using the latter and are output at the output thereof, wherein the first artificial mathematical system is designed to solve an inverse power flow representation.
Surgical instrument for use in minimally invasive surgery, comprising an operating unit intended for operating the instrument by hand and having a main part , a handle that is movable relative to the main part , and a lever which is articulated to the handle and transmits movement of the handle relative to the main part to a drive member which is movable relative to the main part and articulated to the lever , the transmission ratio of the lever changing when the handle moves relative to the main part , the lever being pivotably mounted on the main part , the handle engaging the lever by a longer lever arm than that which engages the drive member , characterised in that the lever is articulated to the handle by means of a second connecting member .
A method for manufacturing an SOI wafer, comprising: implanting one or more gas ion selected from a hydrogen ion and a rare gas ion into a bond wafer from a surface of the bond wafer to form an ion-implanted layer, the bond wafer being a silicon single crystal wafer on which an oxide film has been formed; bonding the surface from which the ion is implanted into the bond wafer and a surface of a base wafer through the oxide film, the base wafer being a silicon single crystal wafer or a silicon single crystal wafer on which an insulator film has been formed; and then delaminating the bond wafer at the ion-implanted layer by performing a delamination heat treatment with a heat treatment furnace to form the SOI wafer, wherein after the delamination heat treatment, the temperature of the heat treatment furnace is decreased to 250°C or less at temperature-decreasing rate of less than 3.0°C/min, and then the SOI wafer and the bond wafer after delamination are taken out from the heat treatment furnace. implanting one or more gas ion selected from a hydrogen ion and a rare gas ion into a bond wafer from a surface of the bond wafer to form an ion-implanted layer, the bond wafer being a silicon single crystal wafer on which an oxide film has been formed; bonding the surface from which the ion is implanted into the bond wafer and a surface of a base wafer through the oxide film, the base wafer being a silicon single crystal wafer or a silicon single crystal wafer on which an insulator film has been formed; and then delaminating the bond wafer at the ion-implanted layer by performing a delamination heat treatment with a heat treatment furnace to form the SOI wafer, wherein after the delamination heat treatment, the temperature of the heat treatment furnace is decreased to 250°C or less at temperature-decreasing rate of less than 3.0°C/min, and then the SOI wafer and the bond wafer after delamination are taken out from the heat treatment furnace.
A child support apparatus comprising: a standing frame , and a juvenile support assembly supported on the standing frame and having a left and a right side, characterized in that the standing frame is foldable and the juvenile support assembly includes a resilient wire extending between the left and right sides, the resilient wire forming a bearing support for a child that is elastically deformable along an upward-downward direction of the juvenile support assembly . a standing frame , and a juvenile support assembly supported on the standing frame and having a left and a right side, characterized in that the standing frame is foldable and the juvenile support assembly includes a resilient wire extending between the left and right sides, the resilient wire forming a bearing support for a child that is elastically deformable along an upward-downward direction of the juvenile support assembly .
Vehicle tyre having a side wall with a hatched surface with basic hatching having a multiplicity of elevations running rectilinearly and parallel or largely parallel to one another, wherein locally delimited hatched surface elements made of sections of the elevations of the basic hatching are formed within the basic hatching , characterized in that a surface element which reproduces a letter or a number is formed from sections of the elevations of the basic hatching , wherein these sections run parallel to the elevations of the basic hatching and are offset relative to the latter in the circumferential direction by up to 1.5 times their mutual spacing, wherein further sections of the elevations of the basic hatching form surface elements which reproduce a border or a partial border of the letter or the number, wherein, in these surface elements , the sections of the elevations of the basic hatching run at an oblique angle (β) to the elevations of the basic hatching .
Haymaking machine , in particular rotary rake, having a base frame which comprises a longitudinal side rail and extension arms and which is able to be supported on an underlying surface to be worked on via supporting wheels , and via which the haymaking machine is able to be coupled to a towing vehicle, having at least one rake rotor which is driven in rotation about a rotor axis and has tine arms with rake tines , wherein each respective rake rotor is mounted on each respective extension arm of the base frame such that the respective rake rotor is able to be displaced in translation relative to the respective extension arm via a guide carriage and in rotation with respect to the guide carriage , characterized in that a first retaining bracket acts on the guide carriage of the respective rake rotor , a second retaining bracket acts on the respective rake rotor , a rod extends through these retaining brackets , a first spring and a second spring are guided on the respective rod , the first spring is arranged on a first side of the second retaining bracket in a manner facing the first retaining bracket , the second spring is arranged on a second side of the second retaining bracket in a manner facing away from the first retaining bracket .