mhurhangee/patent-ind-claim-en huggingface dataset:
A breathable backsheet assembly comprising a support layer positioned beneath and coupled to a cellulosic fiber barrier layer (14, 14 a) and a nonwoven stabilization layer disposed above and coupled to the barrier layer , characterized in that : - the cellulosic fiber barrier layer has a hydrophobic sizing with Alkylketene dimer and an air permeability measured as Frazier air permeability using ASTM D737-04 of more than 152 I min -1 m -2 corresponding to 0.5 ft 3 /min-ft 2 and is configured to hold a hydrostatic head of more than 200 mm H 2 0, the barrier layer having a basis weight between 15 g/m 2 and 36 g/m 2 wherein the barrier layer is a middle layer of tissue and the outer layers are of spunbond or SMS nonwoven made of polypropylene fibers and wherein the basis weight of the nonwoven is in the range of 8 g/m 2 and 42 g/m 2 and wherein the outer layers are the support layer and the stabilization layer ; and - the support layer comprises a nonwoven fabric; and in that - the barrier layer and the support layer define a laminate (la, 2a, 4a, 10, 10a, 10b, 100). - the cellulosic fiber barrier layer has a hydrophobic sizing with Alkylketene dimer and an air permeability measured as Frazier air permeability using ASTM D737-04 of more than 152 I min -1 m -2 corresponding to 0.5 ft 3 /min-ft 2 and is configured to hold a hydrostatic head of more than 200 mm H 2 0, the barrier layer having a basis weight between 15 g/m 2 and 36 g/m 2 wherein the barrier layer is a middle layer of tissue and the outer layers are of spunbond or SMS nonwoven made of polypropylene fibers and wherein the basis weight of the nonwoven is in the range of 8 g/m 2 and 42 g/m 2 and wherein the outer layers are the support layer and the stabilization layer ; and - the support layer comprises a nonwoven fabric; and in that - the barrier layer and the support layer define a laminate (la, 2a, 4a, 10, 10a, 10b, 100).
A construction machine , in particular a road paver or tandem roller, for working a ground in a working direction (a), comprising: a machine frame ; an operator platform at least one travel unit ; and an operating unit , the operating unit comprising: an operator's seat for an operator of the construction machine ; an operating console with operating elements for controlling the construction machine by the operator; a support structure on which both the operator's seat and the operating console are arranged; and a transverse guide with at least one guide rail , wherein the support structure is movably mounted on the at least one guide rail , so that the support structure together with the operator's seat and the operating console are configured to be movable along the at least one guide rail, characterized in that the support structure is configured such that it can be swiveled together with the operator's seat and the operating console about a swivel axis (S) running in vertical direction, the swivel axis (S) being arranged in the working direction (a) in front of the operator's seat . a machine frame ; an operator platform at least one travel unit ; and an operating unit , the operating unit comprising: an operator's seat for an operator of the construction machine ; an operating console with operating elements for controlling the construction machine by the operator; a support structure on which both the operator's seat and the operating console are arranged; and a transverse guide with at least one guide rail , an operator's seat for an operator of the construction machine ; an operating console with operating elements for controlling the construction machine by the operator; a support structure on which both the operator's seat and the operating console are arranged; and a transverse guide with at least one guide rail , wherein the support structure is movably mounted on the at least one guide rail , so that the support structure together with the operator's seat and the operating console are configured to be movable along the at least one guide rail, characterized in that the support structure is configured such that it can be swiveled together with the operator's seat and the operating console about a swivel axis (S) running in vertical direction, the swivel axis (S) being arranged in the working direction (a) in front of the operator's seat .
A method for assembling components of a gas turbine engine, comprising: heating a first component; positioning the first component adjacent to a second component such that a first surface of the first component abuts the second component, subsequent to heating the first component; coupling a cooling plate to the first component such that a first surface (320-1) of the cooling plate abuts a second surface of the first component; coupling a loading ram to the cooling plate such that a second surface (320-2) of the cooling plate abuts the loading ram , wherein the second surface (320-2) of the cooling plate is opposed to the first surface (320-1) of the cooling plate ; engaging the loading ram subsequent to coupling the loading ram to the cooling plate ; engaging a cooling system subsequent to engaging the loading ram , wherein the cooling system includes the cooling plate ; determining that a temperature of the first component is less than a threshold subsequent to coupling the cooling plate to the first component; and decoupling the cooling plate from the first component based on determining that the temperature of the first component is less than the threshold, wherein the first component is a bearing that includes a roller and a race , wherein the second component is one of a seal , a spacer , or a shoulder of a shaft of the gas turbine engine. heating a first component; positioning the first component adjacent to a second component such that a first surface of the first component abuts the second component, subsequent to heating the first component; coupling a cooling plate to the first component such that a first surface (320-1) of the cooling plate abuts a second surface of the first component; coupling a loading ram to the cooling plate such that a second surface (320-2) of the cooling plate abuts the loading ram , wherein the second surface (320-2) of the cooling plate is opposed to the first surface (320-1) of the cooling plate ; engaging the loading ram subsequent to coupling the loading ram to the cooling plate ; engaging a cooling system subsequent to engaging the loading ram , determining that a temperature of the first component is less than a threshold subsequent to coupling the cooling plate to the first component; and decoupling the cooling plate from the first component based on determining that the temperature of the first component is less than the threshold, wherein the first component is a bearing that includes a roller and a race , wherein the second component is one of a seal , a spacer , or a shoulder of a shaft of the gas turbine engine.
A rotary encoder (10, 30, 40, 50a-c, 60), the rotary encoder comprising - a rotor , - a stator , - casting compound , the casting compound having a first surface (18a', 18a") facing the stator, the first surface having a first predetermined shape and being fixated in relation to the stator, and a second surface facing away from the stator, the second surface having a second predetermined shape, - a first housing , the first housing having a cavity, wherein the inside of the first housing forms walls of the cavity, the walls of the cavity being fixated in relation to the second surface, and wherein the stator is arranged within the cavity of the first housing, characterised in that the rotor comprises a shaft and a coding disc mounted at the shaft , the stator comprises a stator disc through which the shaft extends, and the casting compound is arranged radially distributed about the axis (R) of rotation of the rotor , along a longitudinal extension coinciding with the longitudinal extension of the stator and at least part of the rotor . - a rotor , - a stator , - casting compound , the casting compound having a first surface (18a', 18a") facing the stator, the first surface having a first predetermined shape and being fixated in relation to the stator, and a second surface facing away from the stator, the second surface having a second predetermined shape, - a first housing , the first housing having a cavity, wherein the inside of the first housing forms walls of the cavity, the walls of the cavity being fixated in relation to the second surface, and wherein the stator is arranged within the cavity of the first housing, characterised in that the rotor comprises a shaft and a coding disc mounted at the shaft , the stator comprises a stator disc through which the shaft extends, and the casting compound is arranged radially distributed about the axis (R) of rotation of the rotor , along a longitudinal extension coinciding with the longitudinal extension of the stator and at least part of the rotor . the first housing having a cavity, wherein the inside of the first housing forms walls of the cavity, the walls of the cavity being fixated in relation to the second surface, and wherein the stator is arranged within the cavity of the first housing, characterised in that the rotor comprises a shaft and a coding disc mounted at the shaft , the stator comprises a stator disc through which the shaft extends, and the casting compound is arranged radially distributed about the axis (R) of rotation of the rotor , along a longitudinal extension coinciding with the longitudinal extension of the stator and at least part of the rotor .
Polyurethane adhesive consisting of a polyol component K1 and a polyisocyanate component K2; wherein the polyol component K1 comprises - at least one triol A1 with an average molecular weight in the range from 1,000 to 10,000 g/mol, - at least one diol A2 having two primary hydroxy groups and a molecular weight in the range from 60 to 150 g/mol, - at least one diol A3 with an average molecular weight in the range from 200 to 3000 g/mol, which is either a poly(trimethylene oxide) diol or a poly(tetramethylene oxide) diol, and - at least one aliphatic polyamine PA with a molecular weight in the range from 60 to 500 g/mol; and the polyisocyanate component K2 comprises - at least one polyisocyanate B1 and - at least one isocyanate group-containing polyurethane polymer B2 ; wherein the triol A1, the diol A2 and the diol A3 are present in such a quantity that the weight ratio of (A1+A3)/A2 is in the range from 2.5 to 20, preferably 3 to 15, in particular 4 to 10, and the weight ratio of A1/A3 is in the range from 2 to 100, preferably 3 to 75, in particular 4 to 50, wherein the average molecular weight referred to is the number-average molecular weight M n of an oligomeric or polymeric mixture of molecules, which is typically determined by means of GPC against polystyrene as standard. - at least one triol A1 with an average molecular weight in the range from 1,000 to 10,000 g/mol, - at least one diol A2 having two primary hydroxy groups and a molecular weight in the range from 60 to 150 g/mol, - at least one diol A3 with an average molecular weight in the range from 200 to 3000 g/mol, which is either a poly(trimethylene oxide) diol or a poly(tetramethylene oxide) diol, and - at least one aliphatic polyamine PA with a molecular weight in the range from 60 to 500 g/mol; and - at least one polyisocyanate B1 and - at least one isocyanate group-containing polyurethane polymer B2 ;
An inflatable spa comprising: a top wall ; a bottom wall ; an internal wall ; an external wall ; an inflatable air chamber defined by the top wall, the bottom wall, the internal wall, and the external wall; and a water cavity defined by the bottom wall and the internal wall; characterised by further comprising: a control system including a filtered water pump for pumping and filtering water, and a jetted water pump ; a jetted water pipe network , including a plurality of spray nozzles that extend through openings in the internal wall , for delivering water from the jetted water pump through the spray nozzles to the water cavity, wherein the jetted water pipe network is substantially concealed within the inflatable air chamber; and a single water inlet pipe for delivering water from the water cavity to the control system, wherein the water inlet pipe includes a filtered water inlet portion for delivering water to the filtered water pump and a jetted water inlet portion for delivering water to the jetted water pump . a top wall ; a bottom wall ; an internal wall ; an external wall ; an inflatable air chamber defined by the top wall, the bottom wall, the internal wall, and the external wall; and a water cavity defined by the bottom wall and the internal wall; characterised by further comprising: a control system including a filtered water pump for pumping and filtering water, and a jetted water pump ; a jetted water pipe network , including a plurality of spray nozzles that extend through openings in the internal wall , for delivering water from the jetted water pump through the spray nozzles to the water cavity, wherein the jetted water pipe network is substantially concealed within the inflatable air chamber; and a single water inlet pipe for delivering water from the water cavity to the control system, wherein the water inlet pipe includes a filtered water inlet portion for delivering water to the filtered water pump and a jetted water inlet portion for delivering water to the jetted water pump . a control system including a filtered water pump for pumping and filtering water, and a jetted water pump ; a filtered water pump for pumping and filtering water, and a jetted water pump ; a jetted water pipe network , including a plurality of spray nozzles that extend through openings in the internal wall , for delivering water from the jetted water pump through the spray nozzles to the water cavity, wherein the jetted water pipe network is substantially concealed within the inflatable air chamber; and a single water inlet pipe for delivering water from the water cavity to the control system, wherein the water inlet pipe includes a filtered water inlet portion for delivering water to the filtered water pump and a jetted water inlet portion for delivering water to the jetted water pump .
A method for automatic pressure level determination and adaptation enabling energy saving in working cycles in a vacuum system operating a vacuum gripper tool for transportation of objects, said vacuum system comprises a vacuum generator arrangement driven by a compressed air flow, wherein the vacuum generator arrangement via a vacuum chamber being part of the vacuum system is arranged to be brought in flow connection with the vacuum gripper tools , in order to supply vacuum to the vacuum gripper tool in result of the compressed air flow, wherein a pressure sensor for monitoring a system-pressure p - ( t ) is arranged inside the vacuum chamber ; and a vacuum system controller being electrically connected to a main controller, wherein the vacuum system controller is arranged to control and communicate with the vacuum generator arrangement and communicate with the pressure sensor , and the vacuum system controller is arranged to monitor the measured system-pressure p - ( t ) continuously, characterized in that the vacuum system controller further is capable to calculate the system-pressure time derivative D(t) = dp - / dt during the working cycles, wherein the method comprises the steps of: - Determining (S110) at start-up of a working cycle value D 0 of the system-pressure time derivative at a pre-set system-pressure p 0 − ; - Calculating (S120) value D target of target system-pressure time derivative using the value D 0 ; - Comparing (S130) the system-pressure time derivative D(t) to D target until D(t) equals D target ; - Determining (S140) a target system-pressure p n − where D(t) equals D target ; - Calculating (S150) the maximum system-pressure S2H and the minimum system-pressure S2h by means of the target system-pressure p n − and the pre-set system-pressure p 0 − ; - Operating (S160) the vacuum generator arrangement to reestablish a vacuum system-pressure p - ( t ) to maximum system-pressure S2H when the vacuum system-pressure p - ( t ) is equal to or closely equal to the minimum system-pressure S2h. - Determining (S110) at start-up of a working cycle value D 0 of the system-pressure time derivative at a pre-set system-pressure p 0 − ; - Calculating (S120) value D target of target system-pressure time derivative using the value D 0 ; - Comparing (S130) the system-pressure time derivative D(t) to D target until D(t) equals D target ; - Determining (S140) a target system-pressure p n − where D(t) equals D target ; - Calculating (S150) the maximum system-pressure S2H and the minimum system-pressure S2h by means of the target system-pressure p n − and the pre-set system-pressure p 0 − ; - Operating (S160) the vacuum generator arrangement to reestablish a vacuum system-pressure p - ( t ) to maximum system-pressure S2H when the vacuum system-pressure p - ( t ) is equal to or closely equal to the minimum system-pressure S2h.
A transmission control method for a continuously variable transmission connected to an input side of an engine , comprising: performing a control while traveling to select a shifting mode from among a normal transmission mode for changing a transmission ratio in a stepless manner, and a pseudo-stepped transmission mode for changing the transmission ratio in a stepwise manner, and the pseudo-stepped transmission mode having a pseudo-stepped downshift mode in which a transmission input rotational speed (Npri) is increased to a downshift target rotational speed (Nta) in a stepwise manner, and then decreased toward a lower-limit target rotational speed (Ntb) as the vehicle speed (VSP) decreases; characterized by setting the downshift target rotational speed (Nta) and the lower-limit target rotational speed (Ntb) used for the pseudo-stepped downshift to values in an engine rotational speed region in which an engine output becomes greater than or equal to a prescribed value; shifting to the pseudo-stepped downshift mode to start the pseudo-stepped downshift when a mode transition condition is satisfied during deceleration by selecting the normal transmission mode; and repeating an increase to the downshift target rotational speed (Nta) and a decrease to the lower-limit target rotational speed (Ntb) of the transmission input rotational speed (Npri) when the pseudo-stepped downshift is initiated, until a mode cancellation condition, including a re-acceleration request, is satisfied. performing a control while traveling to select a shifting mode from among a normal transmission mode for changing a transmission ratio in a stepless manner, and a pseudo-stepped transmission mode for changing the transmission ratio in a stepwise manner, and the pseudo-stepped transmission mode having a pseudo-stepped downshift mode in which a transmission input rotational speed (Npri) is increased to a downshift target rotational speed (Nta) in a stepwise manner, and then decreased toward a lower-limit target rotational speed (Ntb) as the vehicle speed (VSP) decreases; characterized by setting the downshift target rotational speed (Nta) and the lower-limit target rotational speed (Ntb) used for the pseudo-stepped downshift to values in an engine rotational speed region in which an engine output becomes greater than or equal to a prescribed value; shifting to the pseudo-stepped downshift mode to start the pseudo-stepped downshift when a mode transition condition is satisfied during deceleration by selecting the normal transmission mode; and repeating an increase to the downshift target rotational speed (Nta) and a decrease to the lower-limit target rotational speed (Ntb) of the transmission input rotational speed (Npri) when the pseudo-stepped downshift is initiated, until a mode cancellation condition, including a re-acceleration request, is satisfied.
A compound according to Formula I wherein R is -S-CH 3 or -Cl, or a pharmaceutically acceptable salt thereof.
A case for accommodating tools or small parts, comprising a base body , a lid that is pivotably coupled to the base body and a receptacle for documents and/or small parts that is fastened on an inner side of the lid , wherein the inner side of the lid is provided with multiple first fastening devices that are realized so as to match second fastening devices on the receptacle , and wherein the first and second fastening devices (22; 24) are realized and arranged in such a way that the receptacle can be fixed in at least two different positions on the inner side of the lid , characterized in that the first and second fastening devices (22; 24) are realized in the form of snap-in devices, and in that the first fastening devices have undercut openings and the second fastening devices have projections with undercuts.
A method of designing a spherical microstructure mold module to be incorporated into a calendering roller for generating a microstructure on a planar surface , comprising: calculating a first curvature on a cross-sectional planar surface for a first microstructure point of the spherical microstructure mold module; calculating a second curvature of a spherical surface of the spherical microstructure mold module; measuring a radius of the spherical surface , the radius being from the center of the spherical surface to the first microstructure point; and determining a location of the microstructure on the planar surface, the location being derived from the first curvature , the second curvature , and the radius . calculating a first curvature on a cross-sectional planar surface for a first microstructure point of the spherical microstructure mold module; calculating a second curvature of a spherical surface of the spherical microstructure mold module; measuring a radius of the spherical surface , the radius being from the center of the spherical surface to the first microstructure point; and determining a location of the microstructure on the planar surface, the location being derived from the first curvature , the second curvature , and the radius .
A method for authenticating a transparent polymeric article with a XRF-identifiable mark, the method comprising: (i) forming an XRF-identifiable pattern on at least one region of the transparent polymeric article, said XRF-identifiable pattern having a predefined characteristic responsive to an external stimulus, wherein the "predefined characteristic" is selected from shape of the XRF-identifiable pattern, size of the XRF-identifiable pattern, marker material and concentration of marker material; (ii) irradiating said article with X-Ray or Gamma-Ray radiation at predetermined intervals; (iii) detecting an X-Ray or Gamma-Ray signal arriving from the article in response to the X-Ray or Gamma-Ray radiation applied to the article; (iv) applying spectral processing to the detected radiation signal to obtain data indicative of the presence, absence or any change in the predefined characteristic, wherein the term "transparent" refers to an element whose total light transmission is at least 80%, as measured according to ASTM-D 1003-77. (i) forming an XRF-identifiable pattern on at least one region of the transparent polymeric article, said XRF-identifiable pattern having a predefined characteristic responsive to an external stimulus, wherein the "predefined characteristic" is selected from shape of the XRF-identifiable pattern, size of the XRF-identifiable pattern, marker material and concentration of marker material; (ii) irradiating said article with X-Ray or Gamma-Ray radiation at predetermined intervals; (iii) detecting an X-Ray or Gamma-Ray signal arriving from the article in response to the X-Ray or Gamma-Ray radiation applied to the article; (iv) applying spectral processing to the detected radiation signal to obtain data indicative of the presence, absence or any change in the predefined characteristic,