mhurhangee/ep-ind-claims huggingface dataset:
Banjo assembly for forming an angled rotatable flow connection in between first and second coupling parts, comprising: - a banjo body having the first coupling part and a female rotation part; and - a banjo bolt having the second coupling part, a male rotation part and a head part; the female rotation part of the banjo body fitting rotatable around the male rotation part of the banjo bolt, while the female rotation part at one side is delimited by means of the head part, in which a first medium passage is provided inside the banjo body which first medium passage extends in a first direction (x) through the first coupling part, in which a second medium passage is provided inside the banjo bolt which second medium passage extends in a second direction (y) through at least the male rotation part and the second coupling part, in which the first and second medium passage (13, 25) are in flow communication with each other via one or more flow openings which are provided inside the male rotation part, in which sealing means are provided between the banjo body and the banjo bolt, in which the banjo bolt comprises a first and second segment (2', 2"), the first segment comprising the head part and a first section of the male rotation part, and the second segment (2") comprising the second coupling part and a second section of the male rotation part, in which the two sections (15a, 15b) are provided with complementary connection means (15b") which are connected releasable with each other, in which the complementary connection means (15b") between the two sections (15a, 15b) comprise a screw connection, in which the second coupling part of the banjo bolt comprises an outer thread, in which the sealing means comprise first and second sealing rings (16, 21) which are positioned in between the male and female rotation parts (5, 15) upstream and downstream of the one or more flow openings, in which both sealing rings (16, 21) are radial sealing rings placed inside respective grooves provided in one of the male and female rotation parts (5, 15) while being sealingly slidable in the second direction (y) along the other one of the male and female rotation parts (5, 15), and in which the outer thread is a conical thread. - a banjo body having the first coupling part and a female rotation part; and - a banjo bolt having the second coupling part, a male rotation part and a head part;
A device for mounting an aircraft engine, including a rigid structure, at least one engine attachment (40, 42) intended for attaching the engine on said rigid structure and including a connecting plate superposed to an associated connecting plate of said rigid structure, as well as means for mutual tightening of said respective connecting plates (74, 76) of said engine attachment (40, 42) and of said rigid structure, characterized in that said tightening means comprise at least one wedge-effect tightening block as well as corresponding respective bearing surfaces (94, 96) of said connecting plates (74, 76) which are conformed so that, when each tightening block is jointly applied against said bearing surfaces (94, 96) along a direction parallel to the plane of a contact surface between both of these connecting plates (74, 76), this tightening block exerts by a wedge-effect a force for tightening these connecting plates against each other along a direction perpendicular to said plane.
A method of sterilizing one or more used or un-used absorbent articles comprising in order the steps of: a. Providing the used or un-used absorbent articles, b. Separating said absorbent articles into smaller parts, c. Heating and at least partially drying said absorbent articles, d. Directly applying ozone in gaseous state to said absorbent articles, characterized in that the heating of step c is conducted at a temperature of at least 80° C to at most 200° C and in that the ozone in gaseous state has a concentration of at least 960 ppm or 2.05567 g/m 3 in air to at most 3000 ppm or 6.42398 g/m 3 in air. a. Providing the used or un-used absorbent articles, b. Separating said absorbent articles into smaller parts, c. Heating and at least partially drying said absorbent articles, d. Directly applying ozone in gaseous state to said absorbent articles,
A method comprising: disabling write back (402, 502) to at least one non-volatile memory array of a memory device during calibration or initialization of the memory device in order to calibrate timing requirements of read and write operations for the memory device; wherein disabling the write back (402, 502) to the at least one non-volatile memory array of the memory device includes preventing write operations from being performed to the at least one non-volatile memory array; while the write back to the at least one non-volatile memory array is disabled; receiving a write command from an external source; performing write operations (404, 504) associated with the write command at a temporary memory array; receiving a read command from the external source; performing read operations (406, 506) associated with the read command at the temporary memory array; and after performing the write operations and the read operations at the temporary memory array and in response to identifying (408, 508) a time associated with accessing the memory device, enabling the write back (410, 510) to the at least one non-volatile memory array. disabling write back (402, 502) to at least one non-volatile memory array of a memory device during calibration or initialization of the memory device in order to calibrate timing requirements of read and write operations for the memory device; wherein disabling the write back (402, 502) to the at least one non-volatile memory array of the memory device includes preventing write operations from being performed to the at least one non-volatile memory array; while the write back to the at least one non-volatile memory array is disabled; receiving a write command from an external source; performing write operations (404, 504) associated with the write command at a temporary memory array; receiving a read command from the external source; performing read operations (406, 506) associated with the read command at the temporary memory array; and after performing the write operations and the read operations at the temporary memory array and in response to identifying (408, 508) a time associated with accessing the memory device, enabling the write back (410, 510) to the at least one non-volatile memory array.
Low-dropout voltage regulatorm LDO, apparatus comprising: - a voltage input (Vin) coupleable to a power supply, - an error amplifier, coupled to the voltage input (Vin) and configured to receive a reference voltage signal and a feedback voltage signal and to generate an output control signal (Ctrl) dependent on the reference voltage signal and the feedback signal, the error amplifier comprising a current adjusting circuit, - a pass transistor coupled to the error amplifier and configured to receive the output control signal (Ctrl) of the error amplifier and to provide an output current for an output of the low-dropout voltage regulator apparatus dependent on the output control signal (Ctrl), - a detection circuit coupled to the voltage input (Vin) and configured to provide an output signal on its output dependent on an input voltage (V_in) provided on the voltage input (Vin) of the LDO apparatus, - a bias generator coupled with the output of the detection circuit and configured to provide a bias current (I_bias) on a bias input of the current adjusting circuit of the error amplifier, the LDO apparatus characterised in that the bias generator is configured to provide the bias current (I_bias) dependent on the output signal of the detection circuit wherein the bias current (I_bias) is proportional to a voltage difference between the input voltage (V_in) of the LDO apparatus and a given reference voltage (V_ref2). - a voltage input (Vin) coupleable to a power supply, - an error amplifier, coupled to the voltage input (Vin) and configured to receive a reference voltage signal and a feedback voltage signal and to generate an output control signal (Ctrl) dependent on the reference voltage signal and the feedback signal, the error amplifier comprising a current adjusting circuit, - a pass transistor coupled to the error amplifier and configured to receive the output control signal (Ctrl) of the error amplifier and to provide an output current for an output of the low-dropout voltage regulator apparatus dependent on the output control signal (Ctrl), - a detection circuit coupled to the voltage input (Vin) and configured to provide an output signal on its output dependent on an input voltage (V_in) provided on the voltage input (Vin) of the LDO apparatus, - a bias generator coupled with the output of the detection circuit and configured to provide a bias current (I_bias) on a bias input of the current adjusting circuit of the error amplifier, the LDO apparatus characterised in that the bias generator is configured to provide the bias current (I_bias) dependent on the output signal of the detection circuit wherein the bias current (I_bias) is proportional to a voltage difference between the input voltage (V_in) of the LDO apparatus and a given reference voltage (V_ref2).
A plasterboard comprising a first layer of plaster and a second layer of plaster, characterized in that the first layer forming a roller coating layer comprises activated carbon; the second layer forming the body of the board comprises a scavenging agent; the content of scavenging agent in the first layer, expressed as percentage by weight of dry matter, is less than the content of scavenging agent in the second layer; and the second layer is free of activated carbon; the density of the first layer is greater by at least 5% with respect to the density of the second layer; the thickness of the second layer is greater than the thickness of the first layer; and the thickness of the second layer is at least equal to half the thickness of the plasterboard.
A garment steamer for treating a garment, the garment steamer comprising: - a base, - at least one pole extending from the base, - an ironing board fixed compared to said at least one pole for supporting the garment during treatment, - a hanger for hanging the garment during treatment, - a first coupling element; characterised in that said first coupling element is for allowing the hanger to operate a left/right movement along a first horizontal axis compared to the ironing board. - a base, - at least one pole extending from the base, - an ironing board fixed compared to said at least one pole for supporting the garment during treatment, - a hanger for hanging the garment during treatment, - a first coupling element;
Vehicle seat comprising a vehicle vibration device having a lower part and an upper part which is resiliently mounted with respect to the lower part by means of a damping device, the upper part being suspended on the lower part by means of at least one pivot bearing, the at least one first pivot bearing comprising at least one first lever, the first end of which is attached to the lower part by means of a first pivot axis and the second end of which is attached to the upper part by means of a second pivot axis, the second end being positioned below the first end when viewed in a vertical direction, characterised in that it is possible to vary at least the position of the first end of the first lever by means of an adjustment device.
A silicon-on-insulator device, comprising: a back insulating layer; a semiconductor layer on the back insulating layer, wherein the semiconductor layer includes a source region of a first conductive type having a front source surface and a back source surface, a channel region of a second conductive type having a front channel surface and a back channel surface, and a drain region of the first conductive type; a gate insulating layer on the front channel surface of the channel region; a gate conducting layer on the gate insulating layer; and a back silicidation layer on at least a portion of the back source surface and at least a portion of the back channel surface; a back metal connection system connected to the back silicidation layer, wherein the back metal connection system includes vias and one or more metal layers, wherein the one or more metal layers are located on a surface of the back insulating layer opposite to the semiconductor layer, and wherein the vias are located between the back silicidation layer and the one or more metal layers. a back insulating layer; a semiconductor layer on the back insulating layer, wherein the semiconductor layer includes a source region of a first conductive type having a front source surface and a back source surface, a channel region of a second conductive type having a front channel surface and a back channel surface, and a drain region of the first conductive type; a gate insulating layer on the front channel surface of the channel region; a gate conducting layer on the gate insulating layer; and a back silicidation layer on at least a portion of the back source surface and at least a portion of the back channel surface; a back metal connection system connected to the back silicidation layer, wherein the back metal connection system includes vias and one or more metal layers, wherein the one or more metal layers are located on a surface of the back insulating layer opposite to the semiconductor layer, and wherein the vias are located between the back silicidation layer and the one or more metal layers.
A light extraction substrate of an organic light-emitting device, comprising: a base substrate; a light-scattering layer disposed on the base substrate, and comprising a first material, the light-scattering layer comprising a first surface facing the base substrate, and a second surface opposite the first surface, a number of holes formed in the light-scattering layer; and a planarization layer disposed on the light-scattering layer, and comprising a second material, wherein refractive indices of the first material and the second material range from 1.8 to 2.6, diameters of the number of holes range from 350 nm to 450 nm when measured on a plane perpendicular to a thickness direction of the light-scattering layer, the number of holes occupies at least 40% of the first surface, and wherein the first material and the second material comprise at least one selected from the group consisting of SiO 2, AlON, SiON, TiO 2, Al2O 3, ZnO, ZrO 2, and a composite material of polymer and at least one of SiO 2, AlON, SiON, TiO 2, Al2O 3, ZnO, and ZrO 2, characterised in that each of the number of holes extends from the first surface to the second surface and has a length of 300 nm to 500 nm, and a thickness of the planarization layer is 200 nm or less. a base substrate; a light-scattering layer disposed on the base substrate, and comprising a first material, the light-scattering layer comprising a first surface facing the base substrate, and a second surface opposite the first surface, a number of holes formed in the light-scattering layer; and a planarization layer disposed on the light-scattering layer, and comprising a second material, wherein refractive indices of the first material and the second material range from 1.8 to 2.6, diameters of the number of holes range from 350 nm to 450 nm when measured on a plane perpendicular to a thickness direction of the light-scattering layer, the number of holes occupies at least 40% of the first surface, and wherein the first material and the second material comprise at least one selected from the group consisting of SiO 2, AlON, SiON, TiO 2, Al2O 3, ZnO, ZrO 2, and a composite material of polymer and at least one of SiO 2, AlON, SiON, TiO 2, Al2O 3, ZnO, and ZrO 2, characterised in that each of the number of holes extends from the first surface to the second surface and has a length of 300 nm to 500 nm, and a thickness of the planarization layer is 200 nm or less.
A method for operating an internal combustion engine, wherein at least a first map is predetermined, the first map receiving as inputs a prefixed nominal fuel quantity (Q ecu_prefix) and a prefixed engine speed (RPM _prefix) and yielding as output a corresponding prefixed first value of an engine parameter chosen among: amount of exhaust gas recirculation, boost pressure, rail pressure, throttle valve position, swirl valve position, the method comprising: - determining a nominal fuel quantity (Q ecu) for one injection; - calculating an actual, torque forming, injected fuel quantity of said injection (Q UEGO); - calculating at least one correction parameter (Q delta) which is related to the actual, torque forming, injected fuel quantity of said injection (Q UEGO); - subtracting said at least one correction parameter (Q delta) from said nominal fuel quantity (Q ecu) so as to obtain a corrected fuel quantity (Q ecuCorr) that corresponds to the actual fuel quantity during said injection; - reading from the first map the first value of the engine parameter which corresponds to said corrected fuel quantity (Q ecuCorr) and to a current engine speed (RPM _curr); - operating the engine using said determined first value of the engine parameter, without modifying the actual injected fuel quantity. - determining a nominal fuel quantity (Q ecu) for one injection; - calculating an actual, torque forming, injected fuel quantity of said injection (Q UEGO); - calculating at least one correction parameter (Q delta) which is related to the actual, torque forming, injected fuel quantity of said injection (Q UEGO); - subtracting said at least one correction parameter (Q delta) from said nominal fuel quantity (Q ecu) so as to obtain a corrected fuel quantity (Q ecuCorr) that corresponds to the actual fuel quantity during said injection; - reading from the first map the first value of the engine parameter which corresponds to said corrected fuel quantity (Q ecuCorr) and to a current engine speed (RPM _curr); - operating the engine using said determined first value of the engine parameter, without modifying the actual injected fuel quantity.
An adjustable bed adapted to adjust the hardness of a resilient mattress comprising: - a bed frame comprising a primary base plate, - a resilient mattress arranged on top of the primary base plate, - at least a lifting arrangement comprising a secondary base plate, arranged between the primary base plate and the resilient mattress, and - at least one motor arranged for lifting the secondary base plate, characterized in that the lifting arrangement further comprises - first and second lever arm mechanisms (9, 10), connected to the motor and arranged to lift the secondary base plate in relation to the primary base plate such that the secondary base plate presses the resilient mattress against a person lying in the bed, - guiding arrangements arranged to connect the secondary base plate to the primary base plate and to guide the secondary base plate during a lifting operation between first, second and third positions, and - the primary base plate is provided with elongated first apertures through which the lever arm mechanisms(9, 10) protrude and abut against the secondary base plate in the second and third position. - a bed frame comprising a primary base plate, - a resilient mattress arranged on top of the primary base plate, - at least a lifting arrangement comprising a secondary base plate, arranged between the primary base plate and the resilient mattress, and - at least one motor arranged for lifting the secondary base plate, - first and second lever arm mechanisms (9, 10), connected to the motor and arranged to lift the secondary base plate in relation to the primary base plate such that the secondary base plate presses the resilient mattress against a person lying in the bed, - guiding arrangements arranged to connect the secondary base plate to the primary base plate and to guide the secondary base plate during a lifting operation between first, second and third positions, and - the primary base plate is provided with elongated first apertures through which the lever arm mechanisms(9, 10) protrude and abut against the secondary base plate in the second and third position.
A computer-implemented method comprising: receiving, by an authorization server over a network, permission data from an application server (106, 108, 110), wherein the permission data is for an account associated with a user to access a software application (105A, 105B, 105C) of a plurality of software applications (105A, 105B, 105C), and wherein the application server (106, 108, 110) is configured to provide the software application (105A, 105B, 105C); in response to receiving the permission data from the application server (106, 108, 110), storing, by the authorization server, the permission data in a database, wherein the database is native to the authorization server; receiving, by the authorization server and from the user associated with the account via a client device (118A, 118B, 118N), a request to grant the account access to the software application (105A, 105B, 105C); determining, by the authorization server, whether the database stores the permission data for the account to access the software application (105A, 105B, 105C); and in response to determining that the database stores the permission data, granting the account access to the software application (105A, 105B, 105C). receiving, by an authorization server over a network, permission data from an application server (106, 108, 110), wherein the permission data is for an account associated with a user to access a software application (105A, 105B, 105C) of a plurality of software applications (105A, 105B, 105C), and wherein the application server (106, 108, 110) is configured to provide the software application (105A, 105B, 105C); in response to receiving the permission data from the application server (106, 108, 110), storing, by the authorization server, the permission data in a database, wherein the database is native to the authorization server; receiving, by the authorization server and from the user associated with the account via a client device (118A, 118B, 118N), a request to grant the account access to the software application (105A, 105B, 105C); determining, by the authorization server, whether the database stores the permission data for the account to access the software application (105A, 105B, 105C); and in response to determining that the database stores the permission data, granting the account access to the software application (105A, 105B, 105C).
A composition, comprising: a triptycene-based aromatic polyimide having the following structure: wherein n is 1 to 10,000, wherein X is: wherein Y is a divalent organic group, wherein AR is a substituted or un-substituted aromatic moiety, wherein R1 is a substituted or un-substituted branched alkyl group, wherein R2 is hydrogen, a substituted or un-substituted alkyl group, substituted or un-substituted branched alkyl group, or substituted or un-substituted phenyl group. a triptycene-based aromatic polyimide having the following structure: wherein n is 1 to 10,000, wherein X is: wherein Y is a divalent organic group, wherein AR is a substituted or un-substituted aromatic moiety, wherein R1 is a substituted or un-substituted branched alkyl group, wherein R2 is hydrogen, a substituted or un-substituted alkyl group, substituted or un-substituted branched alkyl group, or substituted or un-substituted phenyl group.