mhurhangee/ep-ind-claims huggingface dataset:
A pattern forming method comprising: (a) forming a first film on a substrate using an actinic ray-sensitive or radiation-sensitive resin composition which contains a resin of which solubility in a developer containing an organic solvent decreases due to polarity increased by an action of an acid; (b) exposing the first film; (c) developing the exposed first film using a developer containing an organic solvent to form a first negative pattern; (e) forming a second film on the substrate on which the first negative pattern is formed using an actinic ray-sensitive or radiation-sensitive resin composition which contains a resin of which solubility in a developer containing an organic solvent decreases due to polarity increased by an action of an acid; (f) exposing the second film; and (g) developing the exposed second film using a developer containing an organic solvent to form a second negative pattern, in this order. (a) forming a first film on a substrate using an actinic ray-sensitive or radiation-sensitive resin composition which contains a resin of which solubility in a developer containing an organic solvent decreases due to polarity increased by an action of an acid; (b) exposing the first film; (c) developing the exposed first film using a developer containing an organic solvent to form a first negative pattern; (e) forming a second film on the substrate on which the first negative pattern is formed using an actinic ray-sensitive or radiation-sensitive resin composition which contains a resin of which solubility in a developer containing an organic solvent decreases due to polarity increased by an action of an acid; (f) exposing the second film; and (g) developing the exposed second film using a developer containing an organic solvent to form a second negative pattern, in this order.
An ice protection assembly for an aircraft, the ice protection assembly comprising: an airfoil comprising: a leading edge; a trailing edge; a first surface; a second surface; a spar extending spanwise across a width of the airfoil from the first surface to the second surface at the largest height of the airfoil, wherein the spar is configured to provide structural support to the airfoil; and an ice protected zone extending from the leading edge to line upstream of the spar; a heater mounted on the airfoil in the ice protected zone configured to melt ice that accumulates on or near the leading edge when in operation thereby forming liquid water; and comprising first and second ice phobic layers and wherein said first ice phobic layer is attached to the airfoil and positioned on the second surface between the ice protected zone and the spar and entirely downstream of the ice protected zone, and wherein said second ice phobic layer is located next to the first ice phobic layer and downstream of the spar in the direction of said trailing edge such that said ice phobic layers prevent the liquid water flowing across the airfoil from refreezing downstream of the ice protected zone when the heater is in operation. a leading edge; a trailing edge; a first surface; a second surface; a spar extending spanwise across a width of the airfoil from the first surface to the second surface at the largest height of the airfoil, wherein the spar is configured to provide structural support to the airfoil; and an ice protected zone extending from the leading edge to line upstream of the spar; a heater mounted on the airfoil in the ice protected zone configured to melt ice that accumulates on or near the leading edge when in operation thereby forming liquid water; and comprising first and second ice phobic layers and wherein said first ice phobic layer is attached to the airfoil and positioned on the second surface between the ice protected zone and the spar and entirely downstream of the ice protected zone, and wherein said second ice phobic layer is located next to the first ice phobic layer and downstream of the spar in the direction of said trailing edge such that said ice phobic layers prevent the liquid water flowing across the airfoil from refreezing downstream of the ice protected zone when the heater is in operation.
A fluid-working machine comprising a ring cam, a low pressure manifold, a high pressure manifold, at least one piston defining a working chamber, and at least one valve (19, 21) associated with the or each working chamber for connecting the working chamber alternately to the low or the high pressure manifold (23, 25) in phased relationship to cycles of working chamber volume, the ring cam having a wave-like cam working surface for operative engagement with the at least one piston by way of a cam engaging element so as to couple reciprocating motion of the at least one piston to rotation of the ring cam relative to the at least one piston and to thereby define the cycles of working chamber volume; the waves of the wave-like cam surface each having a leading face and a trailing face, and the working surface having discontinuities; characterised by the machine being adapted to limit the working fluid pressure in the said working chamber when the respective cam engaging element bears on a said discontinuity in the working surface to thereby reduce the force exerted on the region of the working surface comprising the discontinuity, such that the work done on the region of the working surface comprising the discontinuity is also limited.
A method in an electronic signature service, comprising: transmitting a first uniform resource locator, URL, for providing access to an electronic signature document template for a first user, the electronic signature document template identifying one or more non-signature entry fields of an electronic signature document to be completed by the first user and a workflow associated with the electronic signature document identifying a second user to receive access to a signed version of the electronic signature document; receiving a request from the first user via the transmitted first URL to generate an electronic signature document from the electronic signature document template, the request including non-signature data provided in the one or more non-signature entry fields completed by the first user; in response to the received request, generating the electronic signature document_based on the electronic signature document template and the non-signature data provided in the one or more non-signature entry fields completed by the first user; transmitting a second URL to the first user for_presenting the electronic signature document within a Web browser; and in response to receiving electronic signature data for the electronic signature document from the first user, providing access to the signed version of the electronic signature document to the second user according to the workflow of the electronic signature document template. transmitting a first uniform resource locator, URL, for providing access to an electronic signature document template for a first user, the electronic signature document template identifying one or more non-signature entry fields of an electronic signature document to be completed by the first user and a workflow associated with the electronic signature document identifying a second user to receive access to a signed version of the electronic signature document; receiving a request from the first user via the transmitted first URL to generate an electronic signature document from the electronic signature document template, the request including non-signature data provided in the one or more non-signature entry fields completed by the first user; in response to the received request, generating the electronic signature document_based on the electronic signature document template and the non-signature data provided in the one or more non-signature entry fields completed by the first user; transmitting a second URL to the first user for_presenting the electronic signature document within a Web browser; and in response to receiving electronic signature data for the electronic signature document from the first user, providing access to the signed version of the electronic signature document to the second user according to the workflow of the electronic signature document template.
Crane, in particular heavy-duty crane, which is mobile by means of an associated chassis arrangement, wherein a chassis-less crane module is provided with a bed accommodating a telescopic jib and with laterally extendable support beams equipped at their ends with support legs, and wherein the crane module is provided with docking elements and can be docked therewith in a tilt-resistant manner to the chassis arrangement provided with matching engagement elements, and wherein docking elements are provided on the longitudinal and transverse sides of the crane module, characterized in that, when the crane module is jacked up on its supporting legs, chassis assemblies which can be manipulated by means of the jib can be docked onto the docking elements provided on the longitudinal and transverse sides of the crane module, which chassis assemblies are provided with matching engagement elements and are designed as interchangeable assemblies which are adapted to a specific purpose and can be used selectively.
An apparatus for detecting smoke in an area, comprising: a first detector module comprising a sensor configured to detect smoke in a first volume of air received from the area; a second detector module comprising a sensor configured to detect smoke in a second volume of air received from the area; a first backplane electrically coupled to the first detector module; and a second backplane electrically coupled to the second detector module and to the first backplane so as to transmit power, signals, or both between the first and second detector modules (200, 202), wherein the first and second backplanes (106, 108) are interchangeable and the first and second detector modules (200, 202) are interchangeable wherein the first detector module is physically coupled with the first backplane, the second detector module is physically coupled with the second backplane, and the first and second backplanes (106, 108) are physically coupled together; and wherein the first and second backplanes (106, 108) are configured for attachment to a rail or wall. a first detector module comprising a sensor configured to detect smoke in a first volume of air received from the area; a second detector module comprising a sensor configured to detect smoke in a second volume of air received from the area; a first backplane electrically coupled to the first detector module; and a second backplane electrically coupled to the second detector module and to the first backplane so as to transmit power, signals, or both between the first and second detector modules (200, 202), wherein the first and second backplanes (106, 108) are interchangeable and the first and second detector modules (200, 202) are interchangeable wherein the first detector module is physically coupled with the first backplane, the second detector module is physically coupled with the second backplane, and the first and second backplanes (106, 108) are physically coupled together; and wherein the first and second backplanes (106, 108) are configured for attachment to a rail or wall.
. A method for reporting errors in a software environment, comprising: generating a first error by a first software thread, including a first error identifier, in response to a first error condition relating to the state of at least one resource; propagating the first error identifier to at least one second software thread; generating a second error by a second software thread, including a second error identifier and the first error identifier, in response to a second error condition relating to the state of at least one resource; and reporting the first and second errors (117, 127) to a user. generating a first error by a first software thread, including a first error identifier, in response to a first error condition relating to the state of at least one resource; propagating the first error identifier to at least one second software thread; generating a second error by a second software thread, including a second error identifier and the first error identifier, in response to a second error condition relating to the state of at least one resource; and reporting the first and second errors (117, 127) to a user.
A label winding device (100, 200, 300, 400) configured to receive a medium including a label liner and a label member that is removably attached to the label liner and has at least one label portion and a waste portion, separate the waste portion from the label liner at a waste separation portion, and wind the at least one label portion with the label liner, the label winding device (100, 200, 300, 400) comprising: a waste winder for winding the separated waste portion; a label winder for winding the at least one label portion with the label liner without the separated waste portion; a rotatable waste guide (105, 130, 140) for guiding the separated waste portion to the waste winder; a sensor for detecting a rotational speed of the waste guide (105, 130, 140); and a waste break detector for detecting break of the waste portion on a basis of the detection by the sensor. a waste winder for winding the separated waste portion; a label winder for winding the at least one label portion with the label liner without the separated waste portion; a rotatable waste guide (105, 130, 140) for guiding the separated waste portion to the waste winder; a sensor for detecting a rotational speed of the waste guide (105, 130, 140); and a waste break detector for detecting break of the waste portion on a basis of the detection by the sensor.
A pouch for a secondary battery, the pouch comprising: a first sheet and a second sheet; and a frame unit which is sealed by the first sheet and the second sheet and includes an accommodating part for accommodating an electrode assembly including electrode tabs therein, and wherein the frame unit comprises through holes penetrable by the electrode tabs included in the electrode assembly on at least one side of the frame unit, and sealing parts formed on the surfaces that are in close contact with the first sheet and the second sheet; and characterized in that the sealing parts are protruding from the frame unit away from the accommodating part of the frame unit and perpendicular to the height of the frame unit. a first sheet and a second sheet; and a frame unit which is sealed by the first sheet and the second sheet and includes an accommodating part for accommodating an electrode assembly including electrode tabs therein, and wherein the frame unit comprises through holes penetrable by the electrode tabs included in the electrode assembly on at least one side of the frame unit, and sealing parts formed on the surfaces that are in close contact with the first sheet and the second sheet; and characterized in that the sealing parts are protruding from the frame unit away from the accommodating part of the frame unit and perpendicular to the height of the frame unit.
A process of making a heat shrinkable tube, comprising: melting a polymer 100 parts by weight for one minute at 120°C at a speed of 40 rpm, wherein the polymer is at least one of a ethylene vinyl acetate, EVA/polyethylene, ethylene alpha olefin, ethylene alpha olefin/polyethylene, ethylene ethyl acrylate, ethylene ethyl acrylate/polyethylene, EVA/polyethylene/ethylene propylene diene terpolymer (EPDM), ethylene alpha olefin/polyethylene/EPDM and ethylene ethyl acrylate/polyethylene/EPDM; mixing the following ingredients to the polymer that has been melted and further melting for 10 minutes at 120°C to form a mixture: 70 parts a flame retardant by weight, wherein the flame retardant is at least one of a magnesium hydroxide, huntite hydromagnesite and a combination thereof; 1-20 parts of a secondary flame retardant by weight, wherein the secondary flame retardant is at least one of a red phosphorous, zinc borate and ammonium octamolybdate; 0.1-0.5 parts of an antioxidant by weight; 1-10 parts of a processing aid by weight; 1-6 parts of a carbon black by weight; 1-15 parts of a terpolymer of ethylene, butyl acrylate and maleic anhydride by weight; and 1-15 parts of a radiation cross-linking agents by weight. melting a polymer 100 parts by weight for one minute at 120°C at a speed of 40 rpm, wherein the polymer is at least one of a ethylene vinyl acetate, EVA/polyethylene, ethylene alpha olefin, ethylene alpha olefin/polyethylene, ethylene ethyl acrylate, ethylene ethyl acrylate/polyethylene, EVA/polyethylene/ethylene propylene diene terpolymer (EPDM), ethylene alpha olefin/polyethylene/EPDM and ethylene ethyl acrylate/polyethylene/EPDM; mixing the following ingredients to the polymer that has been melted and further melting for 10 minutes at 120°C to form a mixture: 70 parts a flame retardant by weight, wherein the flame retardant is at least one of a magnesium hydroxide, huntite hydromagnesite and a combination thereof; 1-20 parts of a secondary flame retardant by weight, wherein the secondary flame retardant is at least one of a red phosphorous, zinc borate and ammonium octamolybdate; 0.1-0.5 parts of an antioxidant by weight; 1-10 parts of a processing aid by weight; 1-6 parts of a carbon black by weight; 1-15 parts of a terpolymer of ethylene, butyl acrylate and maleic anhydride by weight; and 1-15 parts of a radiation cross-linking agents by weight. 70 parts a flame retardant by weight, wherein the flame retardant is at least one of a magnesium hydroxide, huntite hydromagnesite and a combination thereof; 1-20 parts of a secondary flame retardant by weight, wherein the secondary flame retardant is at least one of a red phosphorous, zinc borate and ammonium octamolybdate; 0.1-0.5 parts of an antioxidant by weight; 1-10 parts of a processing aid by weight; 1-6 parts of a carbon black by weight; 1-15 parts of a terpolymer of ethylene, butyl acrylate and maleic anhydride by weight; and 1-15 parts of a radiation cross-linking agents by weight.
Method for providing an object message relating to an object detected in an environment of a road user in a communication network for communicating with other road users, wherein the road user has a sensor system for capturing the environment and an evaluation unit for evaluating sensor data generated by the sensor system and transmitting object messages via the communication network, wherein the method comprises: receiving sensor data generated by the sensor system in the evaluation unit; detecting at least one object in the environment of the road user on the basis of the sensor data, wherein at least one movement parameter (p 1, p 2) describing a movement of the object and/or at least one further object parameter (p 3) describing a further property of the object is/are determined; calculating an object transmission priority (p) from the movement parameter (p 1, p 2) and/or the further object parameter (p 3), wherein the object transmission priority (p) represents a relevance of the detected object to the road user and/or the other road users, wherein the movement parameter (p 1, p 2) and/or the further object parameter (p 3) is/are weighted and the object transmission priority (p) is calculated from the weighted movement parameter (p 1, p 2) and/or the weighted further object parameter (p 3), wherein precisely one object transmission priority is assigned to each detected object; determining, on the basis of the object transmission priority (p), whether the detected object is intended to be included in an object message; and if so: generating the object message with the detected object and transmitting the object message via the communication network. receiving sensor data generated by the sensor system in the evaluation unit; detecting at least one object in the environment of the road user on the basis of the sensor data, wherein at least one movement parameter (p 1, p 2) describing a movement of the object and/or at least one further object parameter (p 3) describing a further property of the object is/are determined; calculating an object transmission priority (p) from the movement parameter (p 1, p 2) and/or the further object parameter (p 3), wherein the object transmission priority (p) represents a relevance of the detected object to the road user and/or the other road users, wherein the movement parameter (p 1, p 2) and/or the further object parameter (p 3) is/are weighted and the object transmission priority (p) is calculated from the weighted movement parameter (p 1, p 2) and/or the weighted further object parameter (p 3), wherein precisely one object transmission priority is assigned to each detected object; determining, on the basis of the object transmission priority (p), whether the detected object is intended to be included in an object message; and if so: generating the object message with the detected object and transmitting the object message via the communication network.
A wetness monitoring kit, comprising a monitor (108,158,352) and an absorbent article having a wetness sensor, wherein the monitor (108,158,352) and the article are adapted to physically connect together and the monitor (108,158,352) and the wetness sensor are adapted to electrically connect together, wherein the monitor comprises, a microprocessor (93,193,382) and a current source, wherein the microprocessor forms part of a wetness monitoring circuit (128,178,354) and part of a continuity monitoring circuit, wherein the microprocessor (93,193,382) forms part of a first continuity monitoring circuit (124,174,364) and part of a second continuity monitoring circuit (126,176,366) and wherein the microprocessor (93,193,382) includes programming instructions to activate an indicator (122,172,384) when both the first continuity monitoring circuit (124,174,364) and the second continuity monitoring circuit (126,176,366) are complete, the monitor (108,158,206) further comprising a first contact (110B,160,372), a second contact (112B,162,374), a third contact (114B,164,376) and a fourth contact (116B,166,378), wherein the first continuity monitoring circuit (124,174,364) includes the first contact (110B,160,372) and the second contact (112B,162,374), the first contact (110B,160,372) and the second contact (112B,162,374) being adapted to electrically connect the microprocessor (93,193,382) with a first conductor associated with the absorbent article, wherein the first conductor forms part of the wetness sensor, and wherein the second continuity monitoring circuit (126,176,366) includes the third contact (114B,164,376) and the fourth contact (116B,166,378), the third contact (114B,164,376) and the fourth contact (116B,166,378) being adapted to electrically connect the microprocessor (93,193,382) with a second conductor associated with the absorbent article, wherein the second conductor forms part of the wetness sensor.