mhurhangee/ep-ind-claims huggingface dataset:
Method for producing a foam-formed insulation material for building constructions, characterized in that the method comprising the step of: - mixing wood fibres, liquid, tensides, strength additives preferably starch or microfibrillated cellulose and retention additives preferably cationic starch to form a wet foam, - feeding the wet foam to a head box, - distributing the wet foam on a moving wire, such that, the wet foam forms a foam web on the wire, - pressing liquid out of the foam web, - drying the foam web, wherein the dried foam web has a thickness of 0.3-2 mm, and - bonding several foam webs together to form the foam-formed insulation material, with a thickness of at least 25 mm, wherein the bonding is performed by gluing or with water jet. - mixing wood fibres, liquid, tensides, strength additives preferably starch or microfibrillated cellulose and retention additives preferably cationic starch to form a wet foam, - feeding the wet foam to a head box, - distributing the wet foam on a moving wire, such that, the wet foam forms a foam web on the wire, - pressing liquid out of the foam web, - drying the foam web, wherein the dried foam web has a thickness of 0.3-2 mm, and - bonding several foam webs together to form the foam-formed insulation material, with a thickness of at least 25 mm, wherein the bonding is performed by gluing or with water jet.
A continuous flow process for converting a high-pour-point organic feedstock to an upgraded product comprising: providing a high-pour-point organic feedstock (102, 202) wherein the high-pour-point organic feedstock has a pour point temperature > 10°C (50°F); feeding the high-pour-point organic feedstock into a separation system (124, 224) to produce a distillate fraction (170, 270) and a heavy fraction (126, 226); feeding the heavy fraction (126, 226) from the separation system (124, 224) into a high-rate hydrothermal reactor (146, 246) having a superficial residence time of less than one minute operating at supercritical water conditions and a Reynolds Number (Re) of at least 2000 to produce an upgraded heavy fraction (148, 248); depressurizing the upgraded heavy fraction (148, 248) exiting from the high-rate hydrothermal reactor (146, 246), filtering the depressurized upgraded heavy fraction (152, 252), partially cooling the filtered depressurized heavy fraction (152, 252) in a feed-effluent heat exchanger (116, 216), and feeding the partially cooled heavy fraction (158, 258) to a flash drum (160, 260), feeding a vapor portion (168, 268) from the flash drum (160, 260) to the separation system (124, 224); cooling the liquid bottoms from the flash drum (160, 260) in a heat exchanger (164, 264) to form a cooled reactor effluent (166, 266) and combining the cooled reactor effluent (162, 262) containing refractory compounds from the flash drum (160, 260) with the distillate fraction (170, 270) from the separation system (124, 224) to form the upgraded product (188, 288). providing a high-pour-point organic feedstock (102, 202) wherein the high-pour-point organic feedstock has a pour point temperature > 10°C (50°F); feeding the high-pour-point organic feedstock into a separation system (124, 224) to produce a distillate fraction (170, 270) and a heavy fraction (126, 226); feeding the heavy fraction (126, 226) from the separation system (124, 224) into a high-rate hydrothermal reactor (146, 246) having a superficial residence time of less than one minute operating at supercritical water conditions and a Reynolds Number (Re) of at least 2000 to produce an upgraded heavy fraction (148, 248); depressurizing the upgraded heavy fraction (148, 248) exiting from the high-rate hydrothermal reactor (146, 246), filtering the depressurized upgraded heavy fraction (152, 252), partially cooling the filtered depressurized heavy fraction (152, 252) in a feed-effluent heat exchanger (116, 216), and feeding the partially cooled heavy fraction (158, 258) to a flash drum (160, 260), feeding a vapor portion (168, 268) from the flash drum (160, 260) to the separation system (124, 224); cooling the liquid bottoms from the flash drum (160, 260) in a heat exchanger (164, 264) to form a cooled reactor effluent (166, 266) and combining the cooled reactor effluent (162, 262) containing refractory compounds from the flash drum (160, 260) with the distillate fraction (170, 270) from the separation system (124, 224) to form the upgraded product (188, 288).
A compressible resilient industrial fabric comprising: one or more layers (16, 112, 118, 122) of a nonwoven extruded film or sheet, wherein the nonwoven extruded film or sheet (16, 112, 118, 122) is elastic, resilient, and compressible in a thickness direction, and extensible, bendable and resilient in its length and transverse directions; two or more layers (12, 20) of a plurality of substantially parallel machine direction yarns (14, 22), characterized in that the fabric comprises: a first layer (12, 110) of the parallel yarns running in MD; a second layer (16, 112) of the elastic nonwoven extruded film or sheet on one side of the first layer (12, 110); a third layer (20, 114) of the parallel yarns on the opposite side of the second layer (16, 112) as the first layer (12, 110) and running in the same direction as those of the first layer (12, 110), and wherein the parallel yarns of the third layer (20, 114) are aligned such that they nest between the spaces created between the parallel yarns of the first layer (12, 110), wherein the MD yarns (14, 22) are selected from the group consisting of monofilaments, multifilaments, plied monofilaments or multifilaments, wrapped members comprising different materials, knitted members, twisted members, multicomponent members, and braided members. one or more layers (16, 112, 118, 122) of a nonwoven extruded film or sheet, wherein the nonwoven extruded film or sheet (16, 112, 118, 122) is elastic, resilient, and compressible in a thickness direction, and extensible, bendable and resilient in its length and transverse directions; two or more layers (12, 20) of a plurality of substantially parallel machine direction yarns (14, 22), characterized in that the fabric comprises: a first layer (12, 110) of the parallel yarns running in MD; a second layer (16, 112) of the elastic nonwoven extruded film or sheet on one side of the first layer (12, 110); a third layer (20, 114) of the parallel yarns on the opposite side of the second layer (16, 112) as the first layer (12, 110) and running in the same direction as those of the first layer (12, 110), and wherein the parallel yarns of the third layer (20, 114) are aligned such that they nest between the spaces created between the parallel yarns of the first layer (12, 110), a first layer (12, 110) of the parallel yarns running in MD; a second layer (16, 112) of the elastic nonwoven extruded film or sheet on one side of the first layer (12, 110); a third layer (20, 114) of the parallel yarns on the opposite side of the second layer (16, 112) as the first layer (12, 110) and running in the same direction as those of the first layer (12, 110), and wherein the parallel yarns of the third layer (20, 114) are aligned such that they nest between the spaces created between the parallel yarns of the first layer (12, 110), wherein the MD yarns (14, 22) are selected from the group consisting of monofilaments, multifilaments, plied monofilaments or multifilaments, wrapped members comprising different materials, knitted members, twisted members, multicomponent members, and braided members.
A recording apparatus comprising: an ejecting unit which can eject a first ink for image forming and a second ink onto a recording medium; and a control unit which can control ejecting operations of the first ink and the second ink in the ejecting unit, wherein the second ink is a substantially colorless permeation ink for causing the first ink to permeate through the recording medium so that a coloring material of the first ink is dispersed in the entire thickness direction of the recording medium and onto a face on a side opposite to a recording face, characterized in that the control unit is arranged to perform a plurality of ejecting operations of the first ink with respect to each ejecting operation of the second ink, so that at least a part of a landing position of the second ink and respective landing positions of the first ink overlap on the recording medium, wherein the control unit is arranged to perform said plurality of ejecting operations of the first ink either during movement of the ejecting unit in one direction, or during both a movement of the ejecting unit in an outward direction and the subsequent movement in the return direction in a reciprocating direction of the ejecting unit. an ejecting unit which can eject a first ink for image forming and a second ink onto a recording medium; and a control unit which can control ejecting operations of the first ink and the second ink in the ejecting unit, wherein the second ink is a substantially colorless permeation ink for causing the first ink to permeate through the recording medium so that a coloring material of the first ink is dispersed in the entire thickness direction of the recording medium and onto a face on a side opposite to a recording face, characterized in that the control unit is arranged to perform a plurality of ejecting operations of the first ink with respect to each ejecting operation of the second ink, so that at least a part of a landing position of the second ink and respective landing positions of the first ink overlap on the recording medium, wherein the control unit is arranged to perform said plurality of ejecting operations of the first ink either during movement of the ejecting unit in one direction, or during both a movement of the ejecting unit in an outward direction and the subsequent movement in the return direction in a reciprocating direction of the ejecting unit.
A method of operating a femtocell (105, 205) in communication with a secure network, the method comprising the steps of: providing (305, 405) from the femtocell (105, 205) to a secure entity (125, 215) in the secure network (1 15), a request to provide wireless connectivity to a mobile unit (110, 210); and receiving permission to provide wireless connectivity to the mobile unit (110, 210) when information stored in the secure entity (125, 215) in the secure network indicates that a user of the mobile unit (110, 210) has confirmed that the femtocell (105, 205) is authorized to provide wireless connectivity to the mobile unit (110, 210); the request to provide wireless connectivity to the mobile unit (110, 210) comprises providing a request to modify a list of mobile units associated with the femtocell (105, 205) to add or remove the mobile unit (1 10, 210); characterized in that the request to provide wireless connectivity comprises the substeps of: providing, to the mobile unit (110, 210), a request to add the mobile unit (110, 210) to the list of mobile units associated with the femtocell (105, 205); receiving, from the mobile unit (110, 210), information indicating whether the mobile unit (110, 210) confirms addition to the list of mobile units associated with the femtocell (105, 205); and providing, to the secure entity (125, 215), the information indicating whether the mobile unit (110, 210) confirms addition to the list of mobile units associated with the femtocell (105, 205) such that the list is modified if the user of the mobile unit (110, 210) confirms the addition or removal. providing (305, 405) from the femtocell (105, 205) to a secure entity (125, 215) in the secure network (1 15), a request to provide wireless connectivity to a mobile unit (110, 210); and receiving permission to provide wireless connectivity to the mobile unit (110, 210) when information stored in the secure entity (125, 215) in the secure network indicates that a user of the mobile unit (110, 210) has confirmed that the femtocell (105, 205) is authorized to provide wireless connectivity to the mobile unit (110, 210); the request to provide wireless connectivity to the mobile unit (110, 210) comprises providing a request to modify a list of mobile units associated with the femtocell (105, 205) to add or remove the mobile unit (1 10, 210); providing, to the mobile unit (110, 210), a request to add the mobile unit (110, 210) to the list of mobile units associated with the femtocell (105, 205); receiving, from the mobile unit (110, 210), information indicating whether the mobile unit (110, 210) confirms addition to the list of mobile units associated with the femtocell (105, 205); and providing, to the secure entity (125, 215), the information indicating whether the mobile unit (110, 210) confirms addition to the list of mobile units associated with the femtocell (105, 205) such that the list is modified if the user of the mobile unit (110, 210) confirms the addition or removal.
Disc brake, in particular for a commercial vehicle, comprising a brake calliper encompassing a brake disc, in which brake calliper brake shoes are disposed which are constituted each by a lining backing plate and a friction lining fastened thereon, which is adapted to be pressed against said brake disc, whereof at least one bears against a planar pressing surface in the interior, which is machined and extends in parallel to said brake disc, wherein a projection is provided on said pressing surface, that is received in a recess of said lining backing plate of said applied brake shoe, characterized in that said projection is disposed in the marginal area in at least one lateral corner region of said pressing surface, which faces an insertion opening for said brake shoe.
A surgical tissue removal system for the treatment of spinal and neurovascular impingement, comprising: - an access element including a cannulated probe for obtaining access to the epidural space; - a guide wire for advancing through the cannulated probe and - a flexible elongate body that is adapted to conform with a target anatomy, the body having at least one blade edge, where the blade edge is flush with a surface of the elongate body, where the flexible elongate body further comprises a profile having a width that is substantially greater than a height, and connects at one end with the guide wire. - an access element including a cannulated probe for obtaining access to the epidural space; - a guide wire for advancing through the cannulated probe and - a flexible elongate body that is adapted to conform with a target anatomy, the body having at least one blade edge, where the blade edge is flush with a surface of the elongate body, where the flexible elongate body further comprises a profile having a width that is substantially greater than a height, and connects at one end with the guide wire.
Animal bedding (300, 350, 370, 390, 400, 450, 500, 600, 800, 850, 900, 950) comprising: a first part (300, 370, 390, 950) comprising: an upper layer (320, 510); and a lower layer (360, 514); and a second part (350, 400, 450, 800, 900); wherein a first type of attachment (322, 378, 412, 520; 810, 860; 910, 960, 994) is configured to attach the first part (300, 370, 390, 950) to the second part (350, 400, 450, 800, 900); and wherein a second type of attachment (372, 374, 670) attaches the upper layer (320, 510) to the lower layer (360, 514), wherein the second type of attachment (372, 374, 670) is of a different type than the first type of attachment (322, 378, 412, 520; 810, 860; 910, 960, 994), wherein the second type of attachment (372, 374, 670) comprises a permanent or non-reversible type of attachment, and wherein the first type of attachment (322, 378, 412, 520; 810, 860; 910, 960, 994) is configured to reversibly attach the first part (300, 370, 390, 950) to the second part (350, 400, 450, 800, 900) and detach the first part (300, 370, 390, 950) from the second part (350, 400, 450, 800, 900), characterized in that the second part includes a multi-leveled structure that includes waterproof layers (410, 530) attached to one another to form a cavity contained therein. a first part (300, 370, 390, 950) comprising: an upper layer (320, 510); and a lower layer (360, 514); and an upper layer (320, 510); and a lower layer (360, 514); and a second part (350, 400, 450, 800, 900); wherein a first type of attachment (322, 378, 412, 520; 810, 860; 910, 960, 994) is configured to attach the first part (300, 370, 390, 950) to the second part (350, 400, 450, 800, 900); and wherein a second type of attachment (372, 374, 670) attaches the upper layer (320, 510) to the lower layer (360, 514), wherein the second type of attachment (372, 374, 670) is of a different type than the first type of attachment (322, 378, 412, 520; 810, 860; 910, 960, 994), wherein the second type of attachment (372, 374, 670) comprises a permanent or non-reversible type of attachment, and wherein the first type of attachment (322, 378, 412, 520; 810, 860; 910, 960, 994) is configured to reversibly attach the first part (300, 370, 390, 950) to the second part (350, 400, 450, 800, 900) and detach the first part (300, 370, 390, 950) from the second part (350, 400, 450, 800, 900), characterized in that the second part includes a multi-leveled structure that includes waterproof layers (410, 530) attached to one another to form a cavity contained therein.
A computer-implemented method for facilitating privacy-preserving order statistics in a network, the method comprising: receiving, by a first device of the network from a second device of the network via a central entity, a second value d j associated with the second device perturbed by a random value r j generated by the second device, d j + r j, wherein the first device is associated with a first value, d i; determining a second difference d i -d j -r j mod N, between: a first difference, between the first value and the second value d i - d j; and the random value r j; encrypting, based on a public key of the first device, the second difference; subsequent to transmitting, to the second device via the central entity, the encrypted second difference, receiving, from the second device via the central entity, a sign of a first integer and a ciphertext; decrypting the ciphertext to obtain a third value which indicates the first difference scaled based on the first integer, wherein the scaled first difference is perturbed by a second integer; determining, based on the sign of the first integer and a sign of the third value, whether the first value d i is greater than or less than the second value d j, thereby facilitating devices in the network to determine a relative order of the device value as compared to one or more other device values in the network without revealing any device values. receiving, by a first device of the network from a second device of the network via a central entity, a second value d j associated with the second device perturbed by a random value r j generated by the second device, d j + r j, wherein the first device is associated with a first value, d i; determining a second difference d i -d j -r j mod N, between: a first difference, between the first value and the second value d i - d j; and the random value r j; encrypting, based on a public key of the first device, the second difference; subsequent to transmitting, to the second device via the central entity, the encrypted second difference, receiving, from the second device via the central entity, a sign of a first integer and a ciphertext; decrypting the ciphertext to obtain a third value which indicates the first difference scaled based on the first integer, wherein the scaled first difference is perturbed by a second integer; determining, based on the sign of the first integer and a sign of the third value, whether the first value d i is greater than or less than the second value d j, thereby facilitating devices in the network to determine a relative order of the device value as compared to one or more other device values in the network without revealing any device values.
Plug connector having a locking device for locking the plug connector to a mating plug connector which has been inserted as intended, wherein the plug connector has a housing on which the locking device is rotatably mounted, wherein the locking device forms at least one elastically deformable latching hook, wherein the housing has a latching recess for each latching hook, and the locking device can be latched and fixed to the housing by means of deflection of the respective latching hook into the latching recess in a predetermined rotational position relative to the housing as soon as the locking device has been operated into a predetermined plug-connection position, wherein the at least one latching hook is designed to be released from its latching position, in which it is deflected into the respective latching recess, by an unlocking means of the mating plug connector during a process of plug-connecting the plug connector to the mating plug connector by way of the at least one latching hook being pushed at least partially out of the latching recess by the unlocking means, and wherein the locking device with the latching hook released from the latching position can be rotated from the plug-connected position to a locking position when the mating plug connector is plug-connected to the plug connector as intended, the plug connector and the mating plug connector being locked to each other by the locking device in the locking position, characterized in that the plug connector has a plug face and a groove which encircles at least a portion of the plug face and into which a projection of the mating plug connector, which projection corresponds to the groove, can be brought into engagement during the plug-connection process, and the latching recess extends into the groove and the at least one latching book extends into the groove owing to the deflection of the respective latching hook into the latching recess.