mhurhangee/ep-ind-claims huggingface dataset:
Fluid control arrangement for a medical device having a fluid control circuit comprising a fluid channel arrangement and at least one fluid control component that are arranged between an inlet connection and an outlet connection, having a control circuitry comprising at least one electric and/or electronic component, the control circuitry being configured to control the at least one fluid control component of the fluid control circuit, having a first carrier part comprising a first mounting surface and a first coupling surface and having a second carrier part comprising a second mounting surface and a second coupling surface, wherein the at least one fluid control component of the fluid control circuit and the at least one electric and/or electronic component of the control circuitry are arranged at the mounting surfaces (46, 49) of the carrier parts (45, 48), characterized in that at least one first fluid channel cavity is provided in the first coupling surface and/or at least one second fluid channel cavity is provided in the second coupling surface, that the two carrier parts (45, 48) are connected with each other at the coupling surfaces (47, 50) so that the at least one first fluid channel cavity and/or the at least one second fluid channel cavity limit at least one main fluid channel of the fluid channel arrangement, and that a seal arrangement for sealing the at least one main fluid channel is arranged between the first coupling surface and the second coupling surface. having a fluid control circuit comprising a fluid channel arrangement and at least one fluid control component that are arranged between an inlet connection and an outlet connection, having a control circuitry comprising at least one electric and/or electronic component, the control circuitry being configured to control the at least one fluid control component of the fluid control circuit, having a first carrier part comprising a first mounting surface and a first coupling surface and having a second carrier part comprising a second mounting surface and a second coupling surface, wherein the at least one fluid control component of the fluid control circuit and the at least one electric and/or electronic component of the control circuitry are arranged at the mounting surfaces (46, 49) of the carrier parts (45, 48), characterized in that at least one first fluid channel cavity is provided in the first coupling surface and/or at least one second fluid channel cavity is provided in the second coupling surface, that the two carrier parts (45, 48) are connected with each other at the coupling surfaces (47, 50) so that the at least one first fluid channel cavity and/or the at least one second fluid channel cavity limit at least one main fluid channel of the fluid channel arrangement, and that a seal arrangement for sealing the at least one main fluid channel is arranged between the first coupling surface and the second coupling surface.
A filter apparatus for dedusting gas coming from industrial processes and/or plants, comprising at least one electrostatic precipitator and further comprising at least one filtering unit housed in said at least one electrostatic precipitator, the filtering unit comprising a plurality of filtering cells arranged so as to form a wall adapted to be struck by the flow of said gas inside said electrostatic precipitator, said filtering unit comprising a regeneration system of said cells, said regeneration system comprising means for conveying or delivering a washing fluid, preferably gaseous, to said cells in counterflow with respect to the flow of said gas in said electrostatic precipitator, characterized in that said regeneration system comprises collecting and conveying means for collecting and conveying said washing fluid escaping from the cells following the washing, and in that said collecting and conveying means comprise a plurality of Venturi tubes each positioned upstream of each of said filtering cells with respect to the flow of said gas and each adapted to increase the speed of the washing fluid escaping from a corresponding cell.
A rotor of a press material feed unit of a press, wherein the rotor comprises a rotor shaft with a plurality of toothed discs which are mounted thereon at a distance from one another in the axial direction of the rotor shaft in a rotationally fixed manner and which each have a plurality of teeth pointing radially outward, characterized in that at least one drive bar is arranged in each case on the rotor shaft between every two adjacent toothed discs.
A method for implementing synchronous parallel transmission over multiple channels, comprising: accessing, by a transmitting end and a receiving end, a Network on Chip, NoC, through a transmitting port and a receiving port on the NoC, wherein the transmitting port and the receiving port serve for simultaneous parallel data transmission; transmitting, by the transmitting end, data to the transmitting port of the NoC; encoding, by the transmitting port, the received data into a bipolar data symbol, and modulating the bipolar data symbol using a Walsh code; and mixing, by the NoC, symbols modulated by all transmitting ports by synchronously summing over the symbols modulated by all the transmitting ports, and transmitting a mixed signal to each receiving port via a bus of the NoC in parallel synchronously; demodulating, by a receiving port, received mixed data to obtain the bipolar data symbol according to a Walsh code of the receiving port, decoding the bipolar data symbol, and transmitting the decoded data to a receiving end. accessing, by a transmitting end and a receiving end, a Network on Chip, NoC, through a transmitting port and a receiving port on the NoC, wherein the transmitting port and the receiving port serve for simultaneous parallel data transmission; transmitting, by the transmitting end, data to the transmitting port of the NoC; encoding, by the transmitting port, the received data into a bipolar data symbol, and modulating the bipolar data symbol using a Walsh code; and mixing, by the NoC, symbols modulated by all transmitting ports by synchronously summing over the symbols modulated by all the transmitting ports, and transmitting a mixed signal to each receiving port via a bus of the NoC in parallel synchronously; demodulating, by a receiving port, received mixed data to obtain the bipolar data symbol according to a Walsh code of the receiving port, decoding the bipolar data symbol, and transmitting the decoded data to a receiving end.
Composite structure (1, 20) for a pile foundation for anchoring a tower construction in the ground, in particular a wind turbine, in particular an offshore wind turbine, having a hollow pile (2, 22) which is introduced into the ground at the erection location of the tower construction, further having a corner post (3, 23) that is or can be connected to the tower construction and is arranged inside the pile (2, 22) on the composite side, and having a bonding region in which the pile and the corner post are firmly connected to each other by filling and hardening a bonding compound, where at least one bonding means (5, 6, 7, 8, 9, 25) for transmitting thrust forces is firmly arranged in the bonding region on the pile (2, 22) and/or on the corner post (3, 23), characterized in that the bonding means has at least one recess that can be filled with the bonding compound or forms this recess together with the corner post (3, 23) or pile (2, 22), wherein the recess encloses the bonding compound to be filled in over an angular range of more than 90°.
A hard hat lighting system, comprising: a lamp; a hard hat (10; 100) with a mounting ridge (12, 20; 102) comprising opposite edges (30; 122), the mounting ridge (12, 20; 102) located on a side of the hard hat (10; 100); a mounting bracket (24; 108) that securely and removably mounts to the mounting ridge (12, 20; 102) of the hard hat (10; 100), the mounting bracket (24; 108) removably coupled to the lamp (22; 142), the mounting bracket (24; 108) comprising: receiving slots (28; 120) engaged to opposing edges (30; 122) of the mounting ridge (12, 20; 102) to couple the mounting bracket (24; 108) to the mounting ridge (12, 20; 102); characterised by a flexible strap that couples the lamp to the mounting bracket (24; 108), the lamp being removably coupled from the flexible strap and the flexible strap being removably coupled to the mounting bracket (24; 108). a lamp; a hard hat (10; 100) with a mounting ridge (12, 20; 102) comprising opposite edges (30; 122), the mounting ridge (12, 20; 102) located on a side of the hard hat (10; 100); a mounting bracket (24; 108) that securely and removably mounts to the mounting ridge (12, 20; 102) of the hard hat (10; 100), the mounting bracket (24; 108) removably coupled to the lamp (22; 142), the mounting bracket (24; 108) comprising: receiving slots (28; 120) engaged to opposing edges (30; 122) of the mounting ridge (12, 20; 102) to couple the mounting bracket (24; 108) to the mounting ridge (12, 20; 102); characterised by a flexible strap that couples the lamp to the mounting bracket (24; 108), the lamp being removably coupled from the flexible strap and the flexible strap being removably coupled to the mounting bracket (24; 108). receiving slots (28; 120) engaged to opposing edges (30; 122) of the mounting ridge (12, 20; 102) to couple the mounting bracket (24; 108) to the mounting ridge (12, 20; 102); characterised by a flexible strap that couples the lamp to the mounting bracket (24; 108), the lamp being removably coupled from the flexible strap and the flexible strap being removably coupled to the mounting bracket (24; 108).
A method of operating a first wireless device, comprising: sending a first message including a first intent value indicating a degree of desire of the first wireless device to be a group owner and a tie breaker value to a second wireless device; receiving a second message including a second intent value indicating a degree of desire of the second wireless device to be the group owner from the second wireless device; and determining which of the first wireless device or the second wireless device should be the group owner based on the first intent value, the second intent value, and the tie breaker value; wherein the tie breaker value is set randomly by the first wireless device and it is used to determine which of the first wireless device or the second wireless device should be the group owner when the first intent value is equal to the second intent value and both indicate a degree of desire in being the group owner below a maximum value indicating a necessity of being the group owner. sending a first message including a first intent value indicating a degree of desire of the first wireless device to be a group owner and a tie breaker value to a second wireless device; receiving a second message including a second intent value indicating a degree of desire of the second wireless device to be the group owner from the second wireless device; and determining which of the first wireless device or the second wireless device should be the group owner based on the first intent value, the second intent value, and the tie breaker value;
A process comprising contacting a haloalkane reactant with an olefin in the presence of a catalyst system that consists of metallic iron and a phosphine to produce a haloalkane insertion product, wherein said haloalkane reactant is CF 3 CCl 3.
An apparatus configured to transmit a PDCP status report comprising: a PDCP, Packet Data Convergence Protocol, entity at a transmitting side; an upper layer located above the PDCP entity in a radio interface protocol stack; and a lower layer located below the PDCP entity in the radio interface protocol stack, wherein the PDCP entity at the transmitting side is configured to perform the steps of, processing PDCP data units received from the lower layer after a PDCP re-establishment is requested from the upper layer; compiling (S120-S150, S170) a PDCP status report by, if there is at least one out-of-sequence PDCP SDU, Service Data Unit, stored, setting an FMS, First Missing Sequence number, field to a PDCP sequence number of a first missing PDCP SDU, Service Data Unit, determining a total number of missing PDCP SDUs, if the total number of missing PDCP SDUs is one or less, refraining from including a bitmap field in the PDCP Status report, if the total number of missing PDCP SDUs exceeds one, allocating a bitmap field of length in bits equal to the number of PDCP SNs from and not including the first missing PDCP SDU up to and including the last out-of-sequence PDCP SDUs, rounded up to the next multiple of 8, indicating a '0' in corresponding positions of the bitmap field for all PDCP SD Us that have not been received as indicated by the lower layer, and indicating a '1' in corresponding positions of the bitmap field for all other PDCP SDUs; and sending, to the lower layer, the PDCP status report as a PDCP PDU, Protocol Data Unit, for transmission; wherein the lower layer is a Radio Link Control, RLC, layer. a PDCP, Packet Data Convergence Protocol, entity at a transmitting side; an upper layer located above the PDCP entity in a radio interface protocol stack; and a lower layer located below the PDCP entity in the radio interface protocol stack, wherein the PDCP entity at the transmitting side is configured to perform the steps of, processing PDCP data units received from the lower layer after a PDCP re-establishment is requested from the upper layer; compiling (S120-S150, S170) a PDCP status report by, if there is at least one out-of-sequence PDCP SDU, Service Data Unit, stored, setting an FMS, First Missing Sequence number, field to a PDCP sequence number of a first missing PDCP SDU, Service Data Unit, determining a total number of missing PDCP SDUs, if the total number of missing PDCP SDUs is one or less, refraining from including a bitmap field in the PDCP Status report, if the total number of missing PDCP SDUs exceeds one, allocating a bitmap field of length in bits equal to the number of PDCP SNs from and not including the first missing PDCP SDU up to and including the last out-of-sequence PDCP SDUs, rounded up to the next multiple of 8, indicating a '0' in corresponding positions of the bitmap field for all PDCP SD Us that have not been received as indicated by the lower layer, and indicating a '1' in corresponding positions of the bitmap field for all other PDCP SDUs; and sending, to the lower layer, the PDCP status report as a PDCP PDU, Protocol Data Unit, for transmission; wherein the lower layer is a Radio Link Control, RLC, layer.
A method, comprising: receiving, from a client device, a first network address to be evaluated; determining if a risk rating associated with the first network address is present in a memory element (54, 74); if the risk rating for the first network address indicates that the first network address is not malicious, crafting a first request for the first network address such that redirects will not be followed; sending the first request to the first network address on a first server device; receiving a first response to the first request; determining (340, 380), based on the first response, whether the first network address has been redirected at the first server device to a second network address; searching the memory element (54, 74) for a predetermined risk rating associated with the second network address if the first network address has been redirected to the second network address; and providing a risk response to the client device if the predetermined risk rating is found and indicates the second network address is malicious. receiving, from a client device, a first network address to be evaluated; determining if a risk rating associated with the first network address is present in a memory element (54, 74); if the risk rating for the first network address indicates that the first network address is not malicious, crafting a first request for the first network address such that redirects will not be followed; sending the first request to the first network address on a first server device; receiving a first response to the first request; determining (340, 380), based on the first response, whether the first network address has been redirected at the first server device to a second network address; searching the memory element (54, 74) for a predetermined risk rating associated with the second network address if the first network address has been redirected to the second network address; and providing a risk response to the client device if the predetermined risk rating is found and indicates the second network address is malicious.
A micro-organism comprising a nucleic acid encoding an antigen for use in the treatment of an immune response related disease selected from an autoimmune disease, an allergic disease and graft versus host disease, in a human subject, wherein said antigen is constitutively expressed and secreted by said micro-organism, wherein said micro-organism is a Lactococcus sp. bacterium, and said antigen is to be administered via mucosal delivery, and wherein said human subject has established hypersensitivity to said antigen.
A conductive radius filler system comprising: a composite assembly in the form of a wing panel of an aircraft, the wing panel comprising stringers having one or more radius filler regions; one or more conductive radius fillers filling the one or more radius filler regions, each of the conductive radius fillers having a conductive element comprising electrically conductive material; and one or more electronic systems configured to receive current from a current source, characterised in that the one or more electronic systems is connected to the one or more conductive radius fillers, via one or more conductive radius filler connections, forming a current return handling system configured to handle current return. a composite assembly in the form of a wing panel of an aircraft, the wing panel comprising stringers having one or more radius filler regions; one or more conductive radius fillers filling the one or more radius filler regions, each of the conductive radius fillers having a conductive element comprising electrically conductive material; and one or more electronic systems configured to receive current from a current source, characterised in that the one or more electronic systems is connected to the one or more conductive radius fillers, via one or more conductive radius filler connections, forming a current return handling system configured to handle current return.
An exhaust gas purification apparatus for an internal combustion engine, wherein: a supply device that supplies an additive agent into an exhaust passage of the internal combustion engine; a catalyst that is arranged in said exhaust passage at the downstream side of said supply device; a bent portion that is a location at which said exhaust passage bends, and which is formed at the downstream side of said supply device and at the upstream side of said catalyst; and a swirling flow generation part that is formed in said bent portion so as to permit an exhaust gas to come therein on an extension line in a direction of movement of the exhaust gas which flows toward said bent portion at the upstream side thereof, thereby to generate a swirling flow in which the exhaust gas swirls around a central axis of the exhaust passage at the downstream side of said bent portion, wherein said swirling flow generation part being provided with a spiral portion that is formed into a spiral shape around the central axis of the exhaust passage, at least a part (11 a) of said spiral portion is located on an extension line of the exhaust passage upstream of said bent portion, and the exhaust passage at the downstream side of said bent portion linearly extends up to the catalyst in the direction of an axis of rotation of the swirling flow, the apparatus further characterized in that the spiral portion is provided at the downstream side of said bent portion. a supply device that supplies an additive agent into an exhaust passage of the internal combustion engine; a catalyst that is arranged in said exhaust passage at the downstream side of said supply device; a bent portion that is a location at which said exhaust passage bends, and which is formed at the downstream side of said supply device and at the upstream side of said catalyst; and a swirling flow generation part that is formed in said bent portion so as to permit an exhaust gas to come therein on an extension line in a direction of movement of the exhaust gas which flows toward said bent portion at the upstream side thereof, thereby to generate a swirling flow in which the exhaust gas swirls around a central axis of the exhaust passage at the downstream side of said bent portion, wherein said swirling flow generation part being provided with a spiral portion that is formed into a spiral shape around the central axis of the exhaust passage, at least a part (11 a) of said spiral portion is located on an extension line of the exhaust passage upstream of said bent portion, and the exhaust passage at the downstream side of said bent portion linearly extends up to the catalyst in the direction of an axis of rotation of the swirling flow,
Formulation containing at least one organic functional material and at least a first organic solvent, wherein the at least one organic functional material is selected from the group consisting of fluorescent emitters, phosphorescent emitters, host materials, matrix materials, exciton-blocking materials, electron-transport materials, electron-injection materials, hole-conductor materials, hole-injection materials, n-dopants, p-dopants, wide-band-gap materials, electron-blocking materials and hole-blocking materials, wherein the first organic solvent is an epoxy group containing solvent according to general formula wherein R 1, R 2, R 3 and R 4 are identical or different at each occurence, and are H, D, F, Cl, Br, I, NO 2, CN, a straight-chain alkyl or alkoxy group having from 1 to 20 carbon atoms or a branched or cyclic alkyl or alkoxy group having from 3 to 20 carbon atoms, in which one or more nonadjacent CH 2 groups may be replaced by -O-, -S-, -NR 5-, -CONR 5 -, -CO-O-, -C=O-, -CH=CH- or -C≡C-, and in which one or more hydrogen atoms may be replaced by F, R 5 are identical or different at each instance, and are a straight-chain alkyl or alkoxy group having from 1 to 20 carbon atoms or a branched or cyclic alkyl or alkoxy group having from 3 to 20 carbon atoms, in which one or more nonadjacent CH 2 groups may be replaced by -O-, -S-, -CO-O-, -C=O-, -CH=CH- or -OC-, and in which one or more hydrogen atoms may be replaced by F, wherein the content of the first solvent is in the range from 50 to 100 vol.-%, based on the total amount of solvents in the formulation, and wherein the first solvent has a boiling point in the range from 100 to 400°C. R 1, R 2, R 3 and R 4 are identical or different at each occurence, and are H, D, F, Cl, Br, I, NO 2, CN, a straight-chain alkyl or alkoxy group having from 1 to 20 carbon atoms or a branched or cyclic alkyl or alkoxy group having from 3 to 20 carbon atoms, in which one or more nonadjacent CH 2 groups may be replaced by -O-, -S-, -NR 5-, -CONR 5 -, -CO-O-, -C=O-, -CH=CH- or -C≡C-, and in which one or more hydrogen atoms may be replaced by F, R 5 are identical or different at each instance, and are a straight-chain alkyl or alkoxy group having from 1 to 20 carbon atoms or a branched or cyclic alkyl or alkoxy group having from 3 to 20 carbon atoms, in which one or more nonadjacent CH 2 groups may be replaced by -O-, -S-, -CO-O-, -C=O-, -CH=CH- or -OC-, and in which one or more hydrogen atoms may be replaced by F, wherein the content of the first solvent is in the range from 50 to 100 vol.-%, based on the total amount of solvents in the formulation, and wherein the first solvent has a boiling point in the range from 100 to 400°C.