mhurhangee/ep-ind-claims huggingface dataset:
An absorbent article comprising: a liquid permeable nonwoven topsheet; a nonwoven second material, wherein the second material is a separate material from the topsheet; a liquid impermeable backsheet; an absorbent core positioned at least partially intermediate the second material and the liquid impermeable backsheet; wherein the second material is positioned intermediate the liquid permeable topsheet and the absorbent core; wherein the topsheet comprises a plurality of recesses and a plurality of raised areas; wherein the second material is generally planar; wherein portions of the recesses are joined to portions of the second material; wherein a first aperture is formed in a substantially central location of at least a majority of the raised areas, and wherein the first aperture extends through only the topsheet; wherein the recesses each comprise a base positioned most distal from the substantially central locations of the raised areas; wherein a second aperture is formed in at least a majority of the bases of the recesses, and wherein the second aperture extends through the topsheet and at least partially through the second material; wherein sections of the recesses and the raised areas intermediate the first apertures and the second apertures are free of any apertures; and wherein a void is defined intermediate a garment-facing surface of the topsheet and a wearer-facing surface of the second material in the raised areas. a nonwoven second material, wherein the second material is a separate material from the topsheet; a liquid impermeable backsheet; an absorbent core positioned at least partially intermediate the second material and the liquid impermeable backsheet; wherein the second material is positioned intermediate the liquid permeable topsheet and the absorbent core; wherein the topsheet comprises a plurality of recesses and a plurality of raised areas; wherein the second material is generally planar; wherein portions of the recesses are joined to portions of the second material; wherein a first aperture is formed in a substantially central location of at least a majority of the raised areas, and wherein the first aperture extends through only the topsheet; wherein the recesses each comprise a base positioned most distal from the substantially central locations of the raised areas; wherein a second aperture is formed in at least a majority of the bases of the recesses, and wherein the second aperture extends through the topsheet and at least partially through the second material; wherein sections of the recesses and the raised areas intermediate the first apertures and the second apertures are free of any apertures; and wherein a void is defined intermediate a garment-facing surface of the topsheet and a wearer-facing surface of the second material in the raised areas.
A sole for a shoe comprising - a heel element, - injected sole material - a shank integrated into the sole and for mounting a heel element, wherein said shank at its heel portion is connected to the heel element and wherein said shank comprises an upper surface pointing towards the inner shoe, wherein at least a part of the upper surface at the heel portion is cup-shaped, where the upper surface is curved from an edge (107,207) towards a centre (105,205),and where the sole material is inside the cup between the heel element of the shoe and the heel of a foot during use when integrating said shank in said sole during moulding of said shoe sole, characterised in that the centre (105,205) part of the shank has more sole material than the edge (107,207) of the shank and said shank comprises a heel portion and a front portion and wherein the shank is shaped to extend from the heel via the heel portion towards the front of a shoe and wherein the cup shape at the heel portion decreases towards the front portion. - a heel element, - injected sole material - a shank integrated into the sole and for mounting a heel element, wherein said shank at its heel portion is connected to the heel element and wherein said shank comprises an upper surface pointing towards the inner shoe, wherein at least a part of the upper surface at the heel portion is cup-shaped, where the upper surface is curved from an edge (107,207) towards a centre (105,205),and where the sole material is inside the cup between the heel element of the shoe and the heel of a foot during use when integrating said shank in said sole during moulding of said shoe sole, characterised in that the centre (105,205) part of the shank has more sole material than the edge (107,207) of the shank and said shank comprises a heel portion and a front portion and wherein the shank is shaped to extend from the heel via the heel portion towards the front of a shoe and wherein the cup shape at the heel portion decreases towards the front portion.
A method to remove silica from a silica containing material characterized in that it comprises (i) contacting said silica containing material in solid state with a first metal ion carbonate in solid state, to obtain a first composition, and (ii) heating said first composition in a vessel at a temperature sufficient to increase the pressure above the atmospheric pressure in said vessel or at an absolute pressure of at least 0.2 MPa (2 bara) and at a temperature of at least 80°C, preferably 100°C wherein said pressure is preferably autogeneously generated, wherein the total amount of water of said first composition originating from (a) the silica containing material and from (b) the first metal ion carbonate is greater or equal to 4 mol of water per mol of metal ion carbonate, and wherein the first composition obtained at step (i) is not a suspension in water and is under solid state at standard temperature and pressure, STP, before the performance of step (ii) and wherein said silica containing material is a zeolite selected among MFI, such as ZSM-5, silicalite; MTT, such as ZSM-23; TON, such as ZSM-22, Theta-1, NU-10; EUO, such as ZSM-50, EU-1; MOR, FER, such as ferrierite, FU-9, ZSM-35; MWW, such as MCM-22, PSH-3, ITQ-1, MCM-49; MFS, such as ZSM-57; ZSM-48, BEA, FAU, such as X, Y, USY; MEL, such as ZSM-11; being preferably ferrierite or Y zeolite.
A process for the preparation of 6-chloromethyluracil comprising the following steps: a) Reaction of ethyl 4-chloroacetoacetate and S-methylisothiourea hemisulfate to yield the isolated intermediate 6-(chloromethyl)-6-hydroxy-2-(methylthio)-5,6-dihydropyrimidin-4(1 H)-one; b) Reaction of said 6-(chloromethyl)-6-hydroxy-2-(methylthio)-5,6-dihydropyrimidin-4(1 H)-one with aqueous sulfuric acid to yield 6-chloromethyluracil. a) Reaction of ethyl 4-chloroacetoacetate and S-methylisothiourea hemisulfate to yield the isolated intermediate 6-(chloromethyl)-6-hydroxy-2-(methylthio)-5,6-dihydropyrimidin-4(1 H)-one; b) Reaction of said 6-(chloromethyl)-6-hydroxy-2-(methylthio)-5,6-dihydropyrimidin-4(1 H)-one with aqueous sulfuric acid to yield 6-chloromethyluracil.
A computer-implemented method, comprising: providing autonomous driving control for a vehicle using a primary decision system, wherein the primary decision system uses a first set of driving rules to provide the driving control; recognizing an occurrence of an emergency handling event associated with the vehicle, wherein the emergency handling event includes a hardware or software failure for a component associated with the primary decision system; and in response to recognizing the occurrence of the emergency handling event, switching from the primary decision system to an emergency decision system to continue providing the autonomous driving control for the vehicle, wherein the emergency decision system prioritizes a second set of driving rules over the first set of driving rules to provide the driving control. providing autonomous driving control for a vehicle using a primary decision system, wherein the primary decision system uses a first set of driving rules to provide the driving control; recognizing an occurrence of an emergency handling event associated with the vehicle, wherein the emergency handling event includes a hardware or software failure for a component associated with the primary decision system; and in response to recognizing the occurrence of the emergency handling event, switching from the primary decision system to an emergency decision system to continue providing the autonomous driving control for the vehicle, wherein the emergency decision system prioritizes a second set of driving rules over the first set of driving rules to provide the driving control.
A hydrogen separator comprising: a porous substrate composed mainly of a ceramic having a large number of pores connecting from one surface of the substrate to other surface, and a hydrogen-separating layer made of a hydrogen permselective metal, formed on the porous substrate, characterised in that the hydrogen-separating layer is formed on the porous substrate via an intermediate layer made of an electron-conductive ceramic selected from the group consisting of titanium nitride (TiN), zirconium nitride (ZrN), indium-tin oxide (In 2 O 3 · Sn) and titanium oxide [TiO x (0<x<2)], and wherein the thickness of the intermediate layer is between 0.005 μm and 1 μm. a porous substrate composed mainly of a ceramic having a large number of pores connecting from one surface of the substrate to other surface, and a hydrogen-separating layer made of a hydrogen permselective metal, formed on the porous substrate, characterised in that the hydrogen-separating layer is formed on the porous substrate via an intermediate layer made of an electron-conductive ceramic selected from the group consisting of titanium nitride (TiN), zirconium nitride (ZrN), indium-tin oxide (In 2 O 3 · Sn) and titanium oxide [TiO x (0<x<2)], and wherein the thickness of the intermediate layer is between 0.005 μm and 1 μm.
A device for forming a leno selvedge, in particular for a weaving machine, comprising a stationary housing and a support having the shape of a circular ring or circular disc rotatably supported in the housing by a bearing, characterized in that the support comprises at least two ring gears (14, 15) of magnetizable material extending parallel with one another arranged on the outer circumference, the support comprising two diagonally oppositely disposed thread eyelets for guiding leno threads in the region of the inner race of the bearing, a plurality of magnets being distributed on the outer circumference of the support in the region of the ring gears (14, 15), the housing comprising a stator sheet package of circular ring shape, associated with the two ring gears (14, 15), with a plurality of coils arranged thereon, the stator sheet package comprising segments in the region of the coils with respectively one toothed arrangement associated with the toothed arrangement (14a, 15a) of the ring gears.
A method in a wireless communications device, WCD, the method for mitigating transmission control protocol, TCP, data session degradation over a communication of Internet Protocol, IP, packets between the WCD and an end server, wherein the WCD wirelessly connects to a wireless communications core network via a base station through a cellular telecommunications network, and wherein the WCD is adapted to access Internet Protocol, IP, network through core network to communicate with the end server the method comprising: monitoring a bandwidth allocation for at least one of an uplink communication and a downlink communication with the base station for communication of IP packets between the WCD and the end server; detecting a change in the bandwidth allocation, wherein detecting the change in the bandwidth allocation comprises determining whether a change in at least one of an uplink radio access bearer, RAB, configuration and a downlink RAB configuration has occurred; in response to detecting the change in the bandwidth allocation, performing a real-time round trip time, RTT, measurement utilizing round trip time intervals of segments of an IP packet, the segments being transmitted as segments of a User Datagram Protocol, UDP, datagram between the WCD and the base station at a layer below the IP layer, for communication of IP packets between the WCD and the end server, and wherein the UDP datagram is segmented into segments at the layer below the IP layer; and modifying at least one of a TCP receive window, RWIN, and a TCP transmit window, TWIN, using the real-time RTT measurement. monitoring a bandwidth allocation for at least one of an uplink communication and a downlink communication with the base station for communication of IP packets between the WCD and the end server; detecting a change in the bandwidth allocation, wherein detecting the change in the bandwidth allocation comprises determining whether a change in at least one of an uplink radio access bearer, RAB, configuration and a downlink RAB configuration has occurred; in response to detecting the change in the bandwidth allocation, performing a real-time round trip time, RTT, measurement utilizing round trip time intervals of segments of an IP packet, the segments being transmitted as segments of a User Datagram Protocol, UDP, datagram between the WCD and the base station at a layer below the IP layer, for communication of IP packets between the WCD and the end server, and wherein the UDP datagram is segmented into segments at the layer below the IP layer; and modifying at least one of a TCP receive window, RWIN, and a TCP transmit window, TWIN, using the real-time RTT measurement.
A patient immobilisation device for positioning a patient in the prone position for breast irradiation, comprising a cephalic module for supporting the head and upper extremities of the patient, a thoracic module for supporting the patient thorax, and shaped to allow at least one breast to extend below the thoracic module, and a caudal module for supporting the pelvis and lower extremities of the patient, wherein the cephalic module is detachable and securable to the thoracic module; and wherein the thoracic module is detachable and securable to the caudal module; characterised in that the device can be pivoted in an indexed way around a craniocaudal patient axis F which runs through the patient from head to legs.
A fluidized bed reactor comprising: a) at least one granulation compartment (2,3,4) with one or more air inlets; b) at least one after-cooler compartment (5,6) downstream of and integrated with the at least one granulation compartment; c) a single scrubber downstream of the granulation compartment; d) a single exhaust duct configured to provide a single exhaust stream from the at least one after-cooler compartment directly to the scrubber; e) at least one air moving device downstream the scrubber; wherein the granulation compartment is configured to draw air through said one or more air inlets into the granulation compartment; and, wherein the at least one air moving device has sufficient capacity to create a vacuum exceeding the total pressure drop between the air inlets and the air moving device. a) at least one granulation compartment (2,3,4) with one or more air inlets; b) at least one after-cooler compartment (5,6) downstream of and integrated with the at least one granulation compartment; c) a single scrubber downstream of the granulation compartment; d) a single exhaust duct configured to provide a single exhaust stream from the at least one after-cooler compartment directly to the scrubber; e) at least one air moving device downstream the scrubber;
A computer-implemented method executed at a computer device for selecting one of a front facing camera and a rear facing camera of the computer device for use when recording a video on a video messaging application for exchange of short video messages, the method comprising: receiving a user input on the video messaging application at a user interface component of the computer device; ascertaining whether the user input is associated with sending a short video message by: determining whether the user input is associated with opening a new message shell; selecting a particular contact to which a message is to be sent; or responding to a previously received video message, responsive to determining that the user input is associated with opening a new message shell, selecting a particular contact to which a message is to be sent, or responding to a previously received video message, automatically selecting the front-facing camera of the computer device for recording the video to enable preparation of the short video message, wherein the front-facing camera is arranged to capture a view of a user of the computer device who is preparing the short video message, wherein the short video message is sent to one or more intended recipients; and responsive to determining that the user input is received by way of a record button or record control but is not associated with sending a short video message, automatically selecting the rear facing camera for use when recording the video and causing the camera to commence recording a video when the user initiates recording, without the user selecting the camera by user input. receiving a user input on the video messaging application at a user interface component of the computer device; ascertaining whether the user input is associated with sending a short video message by: determining whether the user input is associated with opening a new message shell; selecting a particular contact to which a message is to be sent; or responding to a previously received video message, responsive to determining that the user input is associated with opening a new message shell, selecting a particular contact to which a message is to be sent, or responding to a previously received video message, automatically selecting the front-facing camera of the computer device for recording the video to enable preparation of the short video message, wherein the front-facing camera is arranged to capture a view of a user of the computer device who is preparing the short video message, wherein the short video message is sent to one or more intended recipients; and responsive to determining that the user input is received by way of a record button or record control but is not associated with sending a short video message, automatically selecting the rear facing camera for use when recording the video and causing the camera to commence recording a video when the user initiates recording, without the user selecting the camera by user input.
Jaw member for a tubular shafted surgical instrument with a first branch having a first active region, and a second branch having a second active region, wherein the first branch and the second branch have a respective link member (120, 220) and the branches (100, 200) are held in the axial direction, and a cam support member is provided which is slideable relative to the link members (120, 220) in the axial direction, wherein the cam support member carries at least one cam and at least one of the link members (120, 220) comprises at least one link path, wherein the link members (120, 220) and the cam support member are formed substantially planar, wherein the cam support member and each link member (120, 220) have at least one region in which they form an undercut so that lifting of the link member (120, 220) from the cam support member is prevented, wherein the jaw member is characterized in that the cam support member is arranged substantially in a sandwich-like manner between the link members (120, 220).
An oxide film removing method of removing an oxide film formed in a surface of a superalloy part that contains a first metal as a base metal and a second metal different from the first metal, the oxide film containing oxide of the base metal and oxide of the second metal, the oxide film removing method comprising: arranging the superalloy part inside a heating chamber; preparing a reduction gas atmosphere or a vacuum atmosphere inside the heating chamber; reducing the oxide of the base metal of the oxide film to the base metal by heating the inside of the heating chamber in a condition that the reduction gas atmosphere or the vacuum atmosphere is maintained; and carrying out acid processing to apply acid solution to the superalloy part after the reduction, wherein the acid processing comprises: dissolving the base metal; and separating the oxide of the second metal left without being reduced through the reduction, from the superalloy part together with the dissolved base metal. arranging the superalloy part inside a heating chamber; preparing a reduction gas atmosphere or a vacuum atmosphere inside the heating chamber; reducing the oxide of the base metal of the oxide film to the base metal by heating the inside of the heating chamber in a condition that the reduction gas atmosphere or the vacuum atmosphere is maintained; and carrying out acid processing to apply acid solution to the superalloy part after the reduction, wherein the acid processing comprises: dissolving the base metal; and separating the oxide of the second metal left without being reduced through the reduction, from the superalloy part together with the dissolved base metal. dissolving the base metal; and separating the oxide of the second metal left without being reduced through the reduction, from the superalloy part together with the dissolved base metal.
A structure comprising a carrying structure of electronic components and a circuit build-up structure, wherein the carrying structure comprises: a first supporting board and a second supporting board, each of the first and second supporting boards having at least one hole (351, 361) extending through the corresponding supporting board; an adhesive layer formed between the first and second supporting boards (35, 36); and at least one electronic component including an active face with a plurality of electrode pads and a non-active face, each electronic component being disposed in a respective hole of the first supporting board and in a respective hole of the second supporting board; wherein a portion of the adhesive layer fills a gap between each electronic component and the first and second supporting boards (35, 36), so as to fix each electronic component in the holes (351, 361) of the first and second supporting boards (35, 36); and wherein the circuit build-up structure is formed on the carrying structure and on the active face of each electronic component, and wherein the circuit build-up structure comprises a plurality of conductive structures formed in the circuit build-up structure and electrically connected to the plurality of electrode pads of the electronic component, and connecting pads are formed on a surface of the circuit build-up structure. a first supporting board and a second supporting board, each of the first and second supporting boards having at least one hole (351, 361) extending through the corresponding supporting board; an adhesive layer formed between the first and second supporting boards (35, 36); and at least one electronic component including an active face with a plurality of electrode pads and a non-active face, each electronic component being disposed in a respective hole of the first supporting board and in a respective hole of the second supporting board;