mhurhangee/ep-ind-claims huggingface dataset:
An imprint device that transfers mold patterns on both surfaces of a molding target using flexible first and second dies (1A, 1B), wherein the molding target is disposed between the flexible first and second dies (1A, 1B), the device comprising: a first casing that comprises a first pressurizing room together with the first die, and applies pressure of the first pressurizing room to the first die and the molding target; a second casing that comprises a second pressurizing room together with the second die, and applies pressure of the second pressurizing room to the second die and the molding target; a pressurizer that adjusts the pressure of the first pressurizing room and the pressure of the second pressurizing room; a first moving unit that moves the first die and the molding target in a direction coming close to or distant from each other; a second moving unit that moves the second die and the molding target in a direction coming close to or distant from each other; a depressurizer that depressurizes a depressurizing room formed between the first die and the second die, and eliminates fluids present between the first die and the molding target and between the second die and the molding target; and a pressure adjuster that adjusts pressures so as to reduce pressure differences between the depressurizing room and the first pressurizing room and between the depressurizing room and the second pressurizing room when the depressurizing room is depressurized. a first casing that comprises a first pressurizing room together with the first die, and applies pressure of the first pressurizing room to the first die and the molding target; a second casing that comprises a second pressurizing room together with the second die, and applies pressure of the second pressurizing room to the second die and the molding target; a pressurizer that adjusts the pressure of the first pressurizing room and the pressure of the second pressurizing room; a first moving unit that moves the first die and the molding target in a direction coming close to or distant from each other; a second moving unit that moves the second die and the molding target in a direction coming close to or distant from each other; a depressurizer that depressurizes a depressurizing room formed between the first die and the second die, and eliminates fluids present between the first die and the molding target and between the second die and the molding target; and a pressure adjuster that adjusts pressures so as to reduce pressure differences between the depressurizing room and the first pressurizing room and between the depressurizing room and the second pressurizing room when the depressurizing room is depressurized.
A method, comprising: associating one or more welding-related devices with a short-range wireless communication network, wherein the one or more welding-related devices comprise a welding wire feeder, a welding torch, a welding helmet, a welding pendant, or a welding foot pedal; wirelessly communicating between the one or more welding-related devices and a master node device via the short-range wireless communication network; and communicating between the master node device and a welding power supply unit via a long-range communication link, wherein the short-range wireless communication network comprises a wireless communication network having a transmission range of approximately 6,0 - 7,6 m (20-25 feet) from the master node device, and wherein the long-range communication link comprises a wireless communication link having a transmission range of approximately 91,4 m (300 feet) or more from the master node device to the welding power supply unit, having the master node device functioning as a router and prioritization controller for the short-range wireless communication network. associating one or more welding-related devices with a short-range wireless communication network, wherein the one or more welding-related devices comprise a welding wire feeder, a welding torch, a welding helmet, a welding pendant, or a welding foot pedal; wirelessly communicating between the one or more welding-related devices and a master node device via the short-range wireless communication network; and communicating between the master node device and a welding power supply unit via a long-range communication link, wherein the short-range wireless communication network comprises a wireless communication network having a transmission range of approximately 6,0 - 7,6 m (20-25 feet) from the master node device, and wherein the long-range communication link comprises a wireless communication link having a transmission range of approximately 91,4 m (300 feet) or more from the master node device to the welding power supply unit, having the master node device functioning as a router and prioritization controller for the short-range wireless communication network.
An automatic pressing jig apparatus for closely adhering a bus bar and a lead assembly provided in a battery module to each other, the automatic pressing jig apparatus comprising: a plurality of pressing units configured to simultaneously press a plurality of bus bars provided in the battery module, the pressing units pressing an end portion of the lead assembly from an upper portion of the bus bar so that the lead assembly does not protrude through a lead slit of the bus bar; a support plate connected to one end portion of the pressing unit to support the plurality of pressing units; and a distance adjusting unit connected to the support plate to move the support plate so that the plurality of pressing units are moved away from or closer to the battery module. a plurality of pressing units configured to simultaneously press a plurality of bus bars provided in the battery module, the pressing units pressing an end portion of the lead assembly from an upper portion of the bus bar so that the lead assembly does not protrude through a lead slit of the bus bar; a support plate connected to one end portion of the pressing unit to support the plurality of pressing units; and a distance adjusting unit connected to the support plate to move the support plate so that the plurality of pressing units are moved away from or closer to the battery module.
A multiple layer polymer interlayer comprising: a polymer sheet comprising: a first plasticized poly(vinylbutyral) layer; a second plasticized poly(vinylbutyral) layer; a third plasticized poly(vinylbutyral) layer; wherein said second polymer layer is disposed between and in direct contact with said first polymer layer and said third polymer layer; wherein the amount of plasticizer in said plasticized poly(vinylbutyral) of said first polymer layer is at least 2 phr greater than the amount of plasticizer in said plasticized poly(vinylbutyral) of said second polymer layer; and wherein the amount of plasticizer in said plasticized poly(vinylbutyral) of said third polymer layer is at least 2 phr greater than the amount of plasticizer in said plasticized poly(vinylbutyral) of said second polymer layer; characterized in that said second polymer layer has a residual hydroxyl content by weight according to ASTM 1396 that is at least 0.5% greater than the residual hydroxyl content by weight in each of said plasticized poly(vinylbutyral) of said first polymer layer and said plasticized poly(vinylbutyral) of said third polymer layer; and said polymer sheet is a single coextruded polymer sheet. a first plasticized poly(vinylbutyral) layer; a second plasticized poly(vinylbutyral) layer; a third plasticized poly(vinylbutyral) layer; wherein said second polymer layer is disposed between and in direct contact with said first polymer layer and said third polymer layer; wherein the amount of plasticizer in said plasticized poly(vinylbutyral) of said first polymer layer is at least 2 phr greater than the amount of plasticizer in said plasticized poly(vinylbutyral) of said second polymer layer; and wherein the amount of plasticizer in said plasticized poly(vinylbutyral) of said third polymer layer is at least 2 phr greater than the amount of plasticizer in said plasticized poly(vinylbutyral) of said second polymer layer; characterized in that said second polymer layer has a residual hydroxyl content by weight according to ASTM 1396 that is at least 0.5% greater than the residual hydroxyl content by weight in each of said plasticized poly(vinylbutyral) of said first polymer layer and said plasticized poly(vinylbutyral) of said third polymer layer; and said polymer sheet is a single coextruded polymer sheet.
A fragrance premix composition comprising: from about 30% to about 98%, by weight of the fragrance premix composition, of a silicone polymer, wherein the silicone polymer is characterized by: (a) an Extraction Percentage (Extr. %), determined as described herein, of less than 8%, after 24 hours; or, (b) a solubility in water of less than about 1000 mg/L, measured at 25°C; or (c) an amine value of from 0.0 to about 3, preferably from 0.0 to about 2.2 meq/g; from about 1% to about 20%, by weight of the fragrance premix composition, of an aminofunctional material, wherein the aminofunctional material is characterized by a molecular weight of up to about 1000 Daltons, and wherein the aminofunctional material comprises at least one amine moiety selected from a primary amine moiety, a secondary amine moiety, or a combination thereof; and from about 0.5% to about 25%, by weight of the fragrance premix composition, of a fragrance material comprising one or more perfume raw materials, wherein the one or more perfume raw materials comprises an aldehyde moiety, a ketone moiety, or combinations thereof; wherein a mixture of the silicone polymer, the aminofunctional material, and the one or more perfume materials in a 9.9: 0.1: 0.1 weight ratio is characterized by a % Transmittance (%T) of at least 40 at 480nm. from about 30% to about 98%, by weight of the fragrance premix composition, of a silicone polymer, wherein the silicone polymer is characterized by: (a) an Extraction Percentage (Extr. %), determined as described herein, of less than 8%, after 24 hours; or, (b) a solubility in water of less than about 1000 mg/L, measured at 25°C; or (c) an amine value of from 0.0 to about 3, preferably from 0.0 to about 2.2 meq/g; (a) an Extraction Percentage (Extr. %), determined as described herein, of less than 8%, after 24 hours; or, (b) a solubility in water of less than about 1000 mg/L, measured at 25°C; or (c) an amine value of from 0.0 to about 3, preferably from 0.0 to about 2.2 meq/g; from about 1% to about 20%, by weight of the fragrance premix composition, of an aminofunctional material, wherein the aminofunctional material is characterized by a molecular weight of up to about 1000 Daltons, and wherein the aminofunctional material comprises at least one amine moiety selected from a primary amine moiety, a secondary amine moiety, or a combination thereof; and wherein the aminofunctional material is characterized by a molecular weight of up to about 1000 Daltons, and wherein the aminofunctional material comprises at least one amine moiety selected from a primary amine moiety, a secondary amine moiety, or a combination thereof; and from about 0.5% to about 25%, by weight of the fragrance premix composition, of a fragrance material comprising one or more perfume raw materials, wherein the one or more perfume raw materials comprises an aldehyde moiety, a ketone moiety, or combinations thereof; wherein a mixture of the silicone polymer, the aminofunctional material, and the one or more perfume materials in a 9.9: 0.1: 0.1 weight ratio is characterized by a % Transmittance (%T) of at least 40 at 480nm.
A method for analyzing the availability of a system, comprising the steps of: (a) generating automatically a degraded mode tree, DMT, containing at least one degraded mode element, wherein the at least one degraded mode element represents a degraded system state of said system which deviates from a normal system state of said system on the basis of a predetermined generic system meta model stored in a database, wherein the database comprises Failure Mode and Effects Analysis, FMEA, elements representing subsystems, failure modes, failure effects and diagnostic measures; and (b) evaluating the generated degraded mode tree, DMT, to calculate the availability of said system, wherein for each degraded mode element a global degraded mode gate element is provided representing a disjunction of all possible failure effect and diagnostic measure; (c) receiving the calculated availability of the system and controlling at least one system component and/or subsystem of the system in response to the calculated availability. (a) generating automatically a degraded mode tree, DMT, containing at least one degraded mode element, wherein the at least one degraded mode element represents a degraded system state of said system which deviates from a normal system state of said system on the basis of a predetermined generic system meta model stored in a database, wherein the database comprises Failure Mode and Effects Analysis, FMEA, elements representing subsystems, failure modes, failure effects and diagnostic measures; and (b) evaluating the generated degraded mode tree, DMT, to calculate the availability of said system, wherein for each degraded mode element a global degraded mode gate element is provided representing a disjunction of all possible failure effect and diagnostic measure; (c) receiving the calculated availability of the system and controlling at least one system component and/or subsystem of the system in response to the calculated availability.
A process for converting oxygenate to olefin, comprising the steps of: a) providing an oxygenate composition containing at least one Group IA or Group IIA metal salt; b) reducing conductivity of the oxygenate composition to form a treated feedstock having a conductivity of not greater than 10 uS/cm; and c) contacting the treated feedstock with a molecular sieve to convert oxygenate in the oxygenate composition to olefin. a) providing an oxygenate composition containing at least one Group IA or Group IIA metal salt; b) reducing conductivity of the oxygenate composition to form a treated feedstock having a conductivity of not greater than 10 uS/cm; and c) contacting the treated feedstock with a molecular sieve to convert oxygenate in the oxygenate composition to olefin.
Train coupler adapter for connecting a coupler of a first geometry with a draw hook coupler, whereby the adapter has • a front section with an interface suitable to couple with a coupler of a first geometry, • a rear section with an opening suitable for the tip of the hook of the draw hook coupler to be inserted into, • a safety bracket (8,28) at the rear section that has a traversing section (9, 29) that is positioned beneath the opening and traverses over the opening, characterized in that the safety bracket (8,28) has • a first arm (10,30) arranged on one side of the rear section, whereby a first part (11,31) of the first arm (10,30) is attached to the rear section in a manner that allows a second part (12,32) of the first arm (10,30) to swivel relative to the rear section, • a second arm (13,33) arranged on the opposite side of the rear section relative to that side, on which the first arm (10,30) is arranged, whereby a first part of the second arm (13,33) is attached to the rear section in a manner that allows a second part (15,35) of the second arm (13,33) to swivel relative to the rear section, • the traversing section (9, 29) being connected to the second part (12, 32) of the first arm (10,30) and the second part (15,35) of the second arm (13,33), whereby a blocking element (16,36) is provided that limits the swivel angle of the first arm (10,30) and limits the swivel angel of the second arm (13,33), whereby the blocking element (16,36) has • a first part (17,37) that is connected to the traversing section (9, 29) and/or the second part (12,32) of the first arm (10,30) and/or the second part (15,35) of the second arm (13,33) and • a second part (18,38) that is connected to the front section or the rear section. • a front section with an interface suitable to couple with a coupler of a first geometry, • a rear section with an opening suitable for the tip of the hook of the draw hook coupler to be inserted into, • a safety bracket (8,28) at the rear section that has a traversing section (9, 29) that is positioned beneath the opening and traverses over the opening, • a first arm (10,30) arranged on one side of the rear section, whereby a first part (11,31) of the first arm (10,30) is attached to the rear section in a manner that allows a second part (12,32) of the first arm (10,30) to swivel relative to the rear section, • a second arm (13,33) arranged on the opposite side of the rear section relative to that side, on which the first arm (10,30) is arranged, whereby a first part of the second arm (13,33) is attached to the rear section in a manner that allows a second part (15,35) of the second arm (13,33) to swivel relative to the rear section, • the traversing section (9, 29) being connected to the second part (12, 32) of the first arm (10,30) and the second part (15,35) of the second arm (13,33), • a first part (17,37) that is connected to the traversing section (9, 29) and/or the second part (12,32) of the first arm (10,30) and/or the second part (15,35) of the second arm (13,33) and • a second part (18,38) that is connected to the front section or the rear section.
Actuating system for the motorized actuation of a closure device for an opening of a wall or for the actuation of a shading device, wherein the actuating system has an electric drive and an electrical energy store in which energy for operating the electric drive is or can be stored, and has a first housing, which contains the electric drive but not the electrical energy store and which bears a first electrical plug-in connector which is electrically connected to the electric drive, and has a second housing, which contains the energy store and which bears a second plug-in connector which is electrically connected to the electrical energy store, the actuating system being characterized by a holder which is arranged outside the first housing and which, independently of and separately from the first housing, is fastened to a wall or to a ceiling or to a reveal and on which the second housing can be mechanically fixed, in particular with a latching-in action, by carrying out a fixing movement, wherein the holder is designed and arranged in such a way that, by carrying out the fixing movement, an electrical connection between the first electrical plug-in connector and the second electrical plug-in connector is automatically and necessarily established. has a first housing, which contains the electric drive but not the electrical energy store and which bears a first electrical plug-in connector which is electrically connected to the electric drive, and has a second housing, which contains the energy store and which bears a second plug-in connector which is electrically connected to the electrical energy store, the actuating system being characterized by a holder which is arranged outside the first housing and which, independently of and separately from the first housing, is fastened to a wall or to a ceiling or to a reveal and on which the second housing can be mechanically fixed, in particular with a latching-in action, by carrying out a fixing movement, wherein the holder is designed and arranged in such a way that, by carrying out the fixing movement, an electrical connection between the first electrical plug-in connector and the second electrical plug-in connector is automatically and necessarily established.
Exercise equipment, comprising a support, a first footboard and a second footboard, for the support of the user's feet, that are arranged alongside and sliding along said support according to a substantially rectilinear direction, articulated connection means for connecting said first footboard to said second footboard, characterized in that said articulated connection means comprise a first rod articulated to said first footboard, at a first end thereof around a first rotation axis, and a second rod articulated to said second footboard, at a first end portion thereof around a second rotation axis, said first rod having a second end opposite to said first end and said second rod having a second end portion opposite to said first end portion, said second end and said second end portion being articulated together around a third rotation axis.
A vehicle, in particular a motor vehicle, comprising a structure defining a passenger compartment and a boot and comprising a reinforcement element formed by a metallic plate receiving a rear flap hinge, the vehicle comprises an anchoring ring for the fixing of an added child seat, said ring is fixed to the reinforcement element by means of a screw and a nut, said screw passing through the different thicknesses of metal sheets forming said structure (11, 12, 26) perpendicular to said reinforcement element, said reinforcement element extending opposite said ring with respect to the other metal sheets (11, 12) forming said structure perpendicular to said reinforcement element, characterized in that said ring is made from metal wire, bent and made into a rectangular shape, and in that a calibrated spacer allows the anchoring ring to be kept at a certain distance from the structure.
A method for controlling a recording volume, comprising: determining an adjustment gain according to a preset reference index of a reference apparatus; and calibrating a recording volume of at least one voice interaction apparatus based on the adjustment gain to make the at least one voice interaction apparatus have a same recording volume under a same sound pressure level, wherein the preset reference index comprises microphone sensitivity; and the voice interaction apparatus comprises a voice interaction apparatus provided with an analog microphone and an analog-to-digital converter, wherein determining the adjustment gain according to the preset reference index of the reference apparatus comprises: determining first microphone sensitivity of the reference apparatus; and determining the adjustment gain based on the first microphone sensitivity, the second microphone sensitivity of the voice interaction apparatus and an analog-to-digital conversion quantified reference voltage of the voice interaction apparatus. determining an adjustment gain according to a preset reference index of a reference apparatus; and calibrating a recording volume of at least one voice interaction apparatus based on the adjustment gain to make the at least one voice interaction apparatus have a same recording volume under a same sound pressure level, wherein the preset reference index comprises microphone sensitivity; and the voice interaction apparatus comprises a voice interaction apparatus provided with an analog microphone and an analog-to-digital converter, wherein determining the adjustment gain according to the preset reference index of the reference apparatus comprises: determining first microphone sensitivity of the reference apparatus; and determining the adjustment gain based on the first microphone sensitivity, the second microphone sensitivity of the voice interaction apparatus and an analog-to-digital conversion quantified reference voltage of the voice interaction apparatus. determining first microphone sensitivity of the reference apparatus; and determining the adjustment gain based on the first microphone sensitivity, the second microphone sensitivity of the voice interaction apparatus and an analog-to-digital conversion quantified reference voltage of the voice interaction apparatus.