mhurhangee/ep-ind-claims huggingface dataset:
Device for evaporating a fluid in an exhaust tract of an internal combustion engine, wherein the device has an injection valve which is designed for injecting the fluid into the exhaust tract, wherein the device has a glow plug with at least one heatable region which is arranged within the exhaust tract, and the injection valve and the glow plug are designed and arranged such that the fluid injected into the exhaust tract by the injection valve at least partially strikes the at least one heatable region of the glow plug, characterized in that, around the at least one heatable region of the glow plug, there is provided a fluid reservoir which is designed for receiving fluid that has been injected into the exhaust tract by the injection valve.
A process for producing a hydrocarbon fraction containing components boiling in the range typical for diesel fuel comprising contacting a feedstock comprising one or more C 2 to C 10 alkenes with a zeolite catalyst having partially neutralised acidity and a one-dimensional or two dimensional micropore structure consisting of channels made from rings containing 10 or 12 silicon/aluminium atoms at a temperature in the range 373 to 773 K (100°C to 500°C) and pressure in the range 0.1 to 200 bar (10 to 20,000 kPa) characterised in that the zeolite catalyst contains both protons and basic cations, wherein the basic cations are selected from the group consisting of Group IA and Group IIA metal cations, and from 10 to 85% of the ion exchange sites of the zeolite catalyst are occupied by the basic cations.
An apparatus for successively making plastic bags each of which includes an end surface provided with a spout, the apparatus comprising: a feeding device by which first and second webs of panel material (38, 39) can be disposed along a horizontal plane and fed longitudinally thereof and intermittently, the first and second webs of panel material (38, 39) being in a first configuration in which the first and second webs of panel material (38, 39) are flat and superposed with each other, the first web of panel material having one side edge protruding beyond one side edge of the second web of panel material along a distance; an aperture forming device by which an aperture can be formed in the first web of panel material at a position between the one side edges of the first and second webs of panel material (38, 39) when the first and second webs of panel material (38, 39) are stopped temporarily; a spout inserting device by which a spout can be inserted into the aperture; a spout seal device by which the spout and the first web of panel material can be heat sealed with each other when the first and second webs of panel material are stopped temporarily; a guide device, located downstream of the spout seal device, by which the first web of panel material can be guided and be folded and folded back along a longitudinal folded line and a longitudinal folded back line extending at positions predetermined widthwise of the first web of panel material when the first and second webs of panel material (38, 39) are fed so that the first and second webs of panel material (38, 39) can be brought into a second configuration in which the second web of panel material is flat and the first web of panel material has a folded portion and a folded back portion, the spout and the longitudinal folded line being positioned between the one side edge of the first web of panel material and the longitudinal folded back line and positioned between the one side edge of the second web of panel material and the longitudinal folded back line; and a circumferential seal device, located downstream of the guide device, by which the folded portion and the folded back portion can be heat sealed with each other and the folded back portion and the second web of panel material can be heat sealed with each other about the spout when the first and second webs of panel material (38, 39) are stopped temporarily, such that the end surface can be formed by the folded back portion provided with the spout.
A method for inspecting a component made using an additive manufacturing process, the component having an internal conduit, comprising: attaching a fluid-blocking header (372-1, 372-2; 482; 582; 682) to the component, the fluid-blocking header having an internal conformal surface (374; 474; 574; 674) configured to mate with an external conformal surface (376; 476; 576; 676) of the component; introducing a plugging media into the internal conduit; activating the fluid-blocking header to freeze the plugging media in a vicinity of the fluid-blocking header; pressurizing the internal conduit of the component; and analyzing a fluid flow characteristic at an outlet of the component to assess an occurrence of a blockage within the internal conduit. attaching a fluid-blocking header (372-1, 372-2; 482; 582; 682) to the component, the fluid-blocking header having an internal conformal surface (374; 474; 574; 674) configured to mate with an external conformal surface (376; 476; 576; 676) of the component; introducing a plugging media into the internal conduit; activating the fluid-blocking header to freeze the plugging media in a vicinity of the fluid-blocking header; pressurizing the internal conduit of the component; and analyzing a fluid flow characteristic at an outlet of the component to assess an occurrence of a blockage within the internal conduit.
A system comprising: a first component having a transmitter and a receiver, a second component having a receiver and a transmitter, and a communication link coupling the first and second components (1000, 1001), the transmitter of the first component configured to transmit data, via a communication channel, to the receiver on the second component, the receiver on the second component configured to receive the data using a first parameter of the communication channel set as an operation value, and the receiver on the first component further configured to receive data to be transmitted by the transmitter on the second component using a second parameter of the communication channel set as the operation value; wherein the system further comprises: means for suspending normal transmission of data by the transmitter on the second component to execute a calibration cycle from time to time, the calibration cycle including: transmitting a calibration pattern using the transmitter on the first component and receiving the calibration pattern using the receiver on the second component with the first parameter set as a calibration value, retransmitting the calibration pattern using the transmitter on the second component to the receiver on the first component and determining, at the first component, a recalibrated value of the first parameter in response to the received calibration pattern. a first component having a transmitter and a receiver, a second component having a receiver and a transmitter, and a communication link coupling the first and second components (1000, 1001), the transmitter of the first component configured to transmit data, via a communication channel, to the receiver on the second component, the receiver on the second component configured to receive the data using a first parameter of the communication channel set as an operation value, and the receiver on the first component further configured to receive data to be transmitted by the transmitter on the second component using a second parameter of the communication channel set as the operation value; transmitting a calibration pattern using the transmitter on the first component and receiving the calibration pattern using the receiver on the second component with the first parameter set as a calibration value, retransmitting the calibration pattern using the transmitter on the second component to the receiver on the first component and determining, at the first component, a recalibrated value of the first parameter in response to the received calibration pattern.
Melt distributor for redirecting and dividing melt from a thermoplastic, wherein the melt distributor is connectable to a multi-layer extrusion head for production of multi-layer preforms from the melt of the multiple melt flows, and wherein the melt distributor comprises multiple trouser-like melt passages (5.1, 5.2, 5.3) and at least one or each trouser-like melt passage - has a feeding passage part and at least two discharging passage parts (7.1, 7.2), and - a branched transition is provided between the feeding passage part and the discharging passage parts (7.1, 7.2), and - the feeding passage part has an inlet for the melt at the end and each discharging passage part (7.1, 7.2) of a trouser-like melt passage (5.1, 5.2, 5.3) has an outlet for the melt at the end, - and wherein at least the branched transition is designed as a rounded Y-shaped line branch, and wherein the branched transition follows a continuously curved curve, the curvature of which is not equal to zero, between the feeding passage part and the two connected discharging passage parts (7.1, 7.2), - characterized in that the melt distributor is in the form of a one-piece component and all the trouser-like melt passages (5.1, 5.2, 5.3) are arranged in the one-piece component, and wherein the one-piece component with the trouser-like melt passages (5.1, 5.2, 5.3) is produced by means of a mould-less, additive manufacturing method for metallic materials. - has a feeding passage part and at least two discharging passage parts (7.1, 7.2), and - a branched transition is provided between the feeding passage part and the discharging passage parts (7.1, 7.2), and - the feeding passage part has an inlet for the melt at the end and each discharging passage part (7.1, 7.2) of a trouser-like melt passage (5.1, 5.2, 5.3) has an outlet for the melt at the end, - and wherein at least the branched transition is designed as a rounded Y-shaped line branch, and wherein the branched transition follows a continuously curved curve, the curvature of which is not equal to zero, between the feeding passage part and the two connected discharging passage parts (7.1, 7.2), - characterized in that the melt distributor is in the form of a one-piece component and all the trouser-like melt passages (5.1, 5.2, 5.3) are arranged in the one-piece component, and wherein the one-piece component with the trouser-like melt passages (5.1, 5.2, 5.3) is produced by means of a mould-less, additive manufacturing method for metallic materials.
An in vitro method to increase the expression of NGN3 and NKX6.1 in a population of cells expressing markers characteristic of the pancreatic endocrine lineage, comprising the steps of: a) culturing pluripotent stem cells, b) differentiating the pluripotent stem cells into cells expressing markers characteristic of the definitive endoderm lineage in a medium comprising activin-A, c) differentiating the cells expressing markers characteristic of the definitive endoderm lineage into cells expressing markers characteristic of the pancreatic endoderm lineage, supplementing the medium used to differentiate the cells expressing markers characteristic of the definitive endoderm lineage with a compound selected from the group consisting of H-9, H-89, GF 109203X, HA-1004, PP2, PP1, Wortmannin, SB-203580, SB-202190, Tyrphostin 25, Tyrphostin AG1478, Tyrphostin 46, GW 5074, Kenpaullone, HNMPA, AG490, Y27632, and ML-7, and d) differentiating the cells expressing markers characteristic of the pancreatic endoderm lineage into cells expressing markers characteristic of the pancreatic endocrine lineage. a) culturing pluripotent stem cells, b) differentiating the pluripotent stem cells into cells expressing markers characteristic of the definitive endoderm lineage in a medium comprising activin-A, c) differentiating the cells expressing markers characteristic of the definitive endoderm lineage into cells expressing markers characteristic of the pancreatic endoderm lineage, supplementing the medium used to differentiate the cells expressing markers characteristic of the definitive endoderm lineage with a compound selected from the group consisting of H-9, H-89, GF 109203X, HA-1004, PP2, PP1, Wortmannin, SB-203580, SB-202190, Tyrphostin 25, Tyrphostin AG1478, Tyrphostin 46, GW 5074, Kenpaullone, HNMPA, AG490, Y27632, and ML-7, and d) differentiating the cells expressing markers characteristic of the pancreatic endoderm lineage into cells expressing markers characteristic of the pancreatic endocrine lineage.
A composite porous body, comprising: a sheet-like conductive porous body having a three-dimensional mesh structure; and a resin portion extending in an in-plane direction of the conductive porous body, the conductive porous body and the resin portion being integrally formed, wherein an inorganic filler is contained in the resin portion, and wherein the inorganic filler is fibrous, and the inorganic filler is contained in a ratio of about 5 wt% to 60 wt% of the resin portion in the resin portion. a sheet-like conductive porous body having a three-dimensional mesh structure; and a resin portion extending in an in-plane direction of the conductive porous body, the conductive porous body and the resin portion being integrally formed, wherein an inorganic filler is contained in the resin portion, and wherein the inorganic filler is fibrous, and the inorganic filler is contained in a ratio of about 5 wt% to 60 wt% of the resin portion in the resin portion.
A method comprising: receiving, by a wireless device, one or more radio resource control messages comprising a first periodicity parameter of a first periodic resource allocation, wherein the first periodicity parameter indicates a number of symbols; receiving a downlink control information indicating activation of the first periodic resource allocation, wherein the downlink control information comprises one or more first fields indicating a numerology, wherein the numerology indicates a symbol duration; and transmitting a plurality of transport blocks via radio resources associated with the first periodic resource allocation, wherein a time interval between two subsequent transmission occasions of the first periodic resource allocation is determined based on the symbol duration and the number of symbols. receiving, by a wireless device, one or more radio resource control messages comprising a first periodicity parameter of a first periodic resource allocation, wherein the first periodicity parameter indicates a number of symbols; receiving a downlink control information indicating activation of the first periodic resource allocation, wherein the downlink control information comprises one or more first fields indicating a numerology, wherein the numerology indicates a symbol duration; and transmitting a plurality of transport blocks via radio resources associated with the first periodic resource allocation, wherein a time interval between two subsequent transmission occasions of the first periodic resource allocation is determined based on the symbol duration and the number of symbols.
Vehicle seat comprising: - a seat cushion, - a backrest, and - at least one of a cavity located under the seat cushion and a cavity located under the backrest; the at least one cavity comprising - at least one air intake (7, 8), - at least one air outlet, and - at least one drain port (10, 11, 12), wherein - the at least one cavity is defined between an underside (3.1) of the seat cushion and a drip pan arranged below the seat cushion, wherein the at least one air intake (7, 8), air outlet and drain port (10, 11, 12) are integrated in the drip pan, and/or - the at least one cavity is defined between an underside of the backrest and a drip pan arranged below the backrest, wherein the at least one air intake (7, 8), air outlet and drain port (10, 11, 12) are integrated in the drip pan. - a seat cushion, - a backrest, and - at least one of a cavity located under the seat cushion and a cavity located under the backrest; - at least one air intake (7, 8), - at least one air outlet, and - at least one drain port (10, 11, 12), wherein - the at least one cavity is defined between an underside (3.1) of the seat cushion and a drip pan arranged below the seat cushion, wherein the at least one air intake (7, 8), air outlet and drain port (10, 11, 12) are integrated in the drip pan, and/or - the at least one cavity is defined between an underside of the backrest and a drip pan arranged below the backrest, wherein the at least one air intake (7, 8), air outlet and drain port (10, 11, 12) are integrated in the drip pan. - the at least one cavity is defined between an underside (3.1) of the seat cushion and a drip pan arranged below the seat cushion, wherein the at least one air intake (7, 8), air outlet and drain port (10, 11, 12) are integrated in the drip pan, and/or - the at least one cavity is defined between an underside of the backrest and a drip pan arranged below the backrest, wherein the at least one air intake (7, 8), air outlet and drain port (10, 11, 12) are integrated in the drip pan.
An integrated electronic device for detecting the composition of ultraviolet radiation, comprising: - a cathode region (6, 8) formed by a semiconductor material; and - a first anode region (10; 410) and a second anode region (12; 412), which are laterally staggered with respect to one another and are arranged in contact with the cathode region; wherein said cathode region and said first anode region form a first sensor; and wherein said cathode region and said second anode region form a second sensor; and wherein, in a spectral range formed by the UVA band and by the UVB band, the first and second sensors have, respectively, a first spectral efficiency and a second spectral efficiency that differ from one another; characterized in that said first and second anode regions are formed by a silicide and wherein said first sensor has a non-zero spectral efficiency in said spectral range, and wherein the second sensor has a substantially zero spectral efficiency in the UVB band. - a cathode region (6, 8) formed by a semiconductor material; and - a first anode region (10; 410) and a second anode region (12; 412), which are laterally staggered with respect to one another and are arranged in contact with the cathode region;
A method of transmitting data from a communications device to a mobile communications network or receiving data from the mobile communications network at the communications device via a wireless access interface provided by the mobile communications network for transmitting and receiving data to and from communications devices, the wireless access interface providing communications resources within a system bandwidth and in time divided units providing communications resources within the system bandwidth for allocation to communications devices of a first type and a second type, the second type of the communications devices having a reduced capability compared to the first type of communications devices, the method comprising generating, at the communications device, a random access message, by selecting a sequence from a predetermined set of sequences, which have been allocated to the communications devices of the second type, the communications device being a communications device of the second type, transmitting the random access message from the communications device of the second type to the mobile communications network, and in response to the random access message, receiving, from communications resources allocated to the communications device within a limited bandwidth, a random access response at the communications device transmitted according to the capability of the communications device of the second type, wherein the wireless access interface includes a virtual carrier defining a set of communications resources of the system bandwidth for allocation to the communications device of the second type for transmitting or receiving signals within the communications resources of the virtual carrier, the communications resources within each of the time divided units of the virtual carrier being within the limited bandwidth, the limited bandwidth being smaller than the system bandwidth in accordance with the reduced capability of the second type of communications devices, for the communications devices of the second type to transmit or to receive data at a rate which is lower than a rate which can be transmitted or received using the system bandwidth by communications devices of the first type.
A system to facilitate handover, comprising: a mobile unit (12,50) configured to operate according to at least first radio technology and a second radio technology, the second radio technology being different from the first radio technology; and a fingerprint detector configured to evaluate input data relative to stored mobility fingerprint data that defines at least one predetermined roam zone that is a predetermined portion of an area of overlap in coverage areas (110, 112, 114, 116) between the first and second radio technologies, definable by a cross section where predetermined signal strength ranges of the first and second technologies overlap, further adapted to determine whether to trigger a handover between the first and second radio technologies for the mobile unit (12,50) based on an evaluation of the mobility fingerprint data relative to the input data. a mobile unit (12,50) configured to operate according to at least first radio technology and a second radio technology, the second radio technology being different from the first radio technology; and a fingerprint detector configured to evaluate input data relative to stored mobility fingerprint data that defines at least one predetermined roam zone that is a predetermined portion of an area of overlap in coverage areas (110, 112, 114, 116) between the first and second radio technologies, definable by a cross section where predetermined signal strength ranges of the first and second technologies overlap, further adapted to determine whether to trigger a handover between the first and second radio technologies for the mobile unit (12,50) based on an evaluation of the mobility fingerprint data relative to the input data.