mhurhangee/ep-ind-claims huggingface dataset:
A heating device for heating air, comprising a primary heat source, a heat exchanger and a housing, wherein the heating device is configured for use in a travel trailer or a motorhome, wherein the primary heat source is a gas or diesel burner, wherein the heat exchanger surrounds the centrally arranged primary heat source, wherein the heat exchanger comprises an interior space for receiving the primary heat source and transfers thermal energy generated by the primary heat source to the air, and wherein the heat exchanger includes a plurality of holding elements that are radially spaced apart, arranged around the interior space, and serve to receive a respective electric heating element as a secondary heat source, characterized in that the heat exchanger consists of a first heat exchanger unit and a plurality of second heat exchanger units, each for a respective electric heating element, in that the first heat exchanger unit and the second heat exchanger units include contact profiles corresponding to each other for a releasable mechanical and/or direct thermal connection, in that the housing and the first heat exchanger unit define an air duct for the air to be heated, and in that the first heat exchanger unit is arranged within the housing such that the plurality of second heat exchanger units are insertable into the air duct so as to be symmetrical to each other. comprising a primary heat source, a heat exchanger and a housing, wherein the heating device is configured for use in a travel trailer or a motorhome, wherein the primary heat source is a gas or diesel burner, wherein the heat exchanger surrounds the centrally arranged primary heat source, wherein the heat exchanger comprises an interior space for receiving the primary heat source and transfers thermal energy generated by the primary heat source to the air, and wherein the heat exchanger includes a plurality of holding elements that are radially spaced apart, arranged around the interior space, and serve to receive a respective electric heating element as a secondary heat source, characterized in that the heat exchanger consists of a first heat exchanger unit and a plurality of second heat exchanger units, each for a respective electric heating element, in that the first heat exchanger unit and the second heat exchanger units include contact profiles corresponding to each other for a releasable mechanical and/or direct thermal connection, in that the housing and the first heat exchanger unit define an air duct for the air to be heated, and in that the first heat exchanger unit is arranged within the housing such that the plurality of second heat exchanger units are insertable into the air duct so as to be symmetrical to each other.
Beam device, in particular a particle beam device, comprising - at least one beam generator that generates a beam, - at least one objective lens that focuses said beam on an object arranged in a holding element, and - at least one beam column having an optical axis, wherein - said objective lens or said beam column comprises at least one connecting element, said holding element is connected to said connecting element so that said holding element is removable from said connecting element for modification of said object, - said connecting element (26, 51) comprises at least one valve and wherein - said holding element is formed like a chamber comprising at least one aperture and being configured for said object to be arranged in the interior of the chamber. - at least one beam generator that generates a beam, - at least one objective lens that focuses said beam on an object arranged in a holding element, and - at least one beam column having an optical axis, - said objective lens or said beam column comprises at least one connecting element, said holding element is connected to said connecting element so that said holding element is removable from said connecting element for modification of said object, - said connecting element (26, 51) comprises at least one valve and wherein - said holding element is formed like a chamber comprising at least one aperture and being configured for said object to be arranged in the interior of the chamber.
A compound of Formula II: wherein: m is 0; n is 1; R 10 is C 1-6 alkyl; wherein said C 1-6 alkyl is substituted with three halo substituents; one of R 3 is hydrogen; and R 2 and one of R 3 join together with the atom to which they are attached to form a heterocyclyl comprising a single ring or multiple condensed rings, having from 1 to 40 carbon atoms and from 1 to 10 hetero atoms, or from 1 to 4 heteroatoms, selected from nitrogen, sulfur, phosphorus, and/or oxygen within the ring; wherein said heterocyclyl is optionally substituted with one, two or three substituents independently selected from the group consisting of C 1-6 alkyl, -O-R 20, -N(R 20)(R 22), -N(R 20)-C -OR 20 and -C -OR 20; and wherein said C 1-6 alkyl is optionally substituted with one, two or three substituents independently selected from the group consisting of halo and heteroaryl comprising single or multiple rings comprising 1 to 15 carbon atoms and 1 to 4 heteroatoms selected from oxygen, nitrogen and sulfur within at least one ring; each R 4 is hydrogen; R 20 and R 22 are in each instance independently selected from the group consisting of hydrogen and C 1-6 alkyl; or a pharmaceutically acceptable salt, ester, stereoisomer, mixture of stereoisomers or tautomer thereof. m is 0; n is 1; R 10 is C 1-6 alkyl; wherein said C 1-6 alkyl is substituted with three halo substituents; one of R 3 is hydrogen; and R 2 and one of R 3 join together with the atom to which they are attached to form a heterocyclyl comprising a single ring or multiple condensed rings, having from 1 to 40 carbon atoms and from 1 to 10 hetero atoms, or from 1 to 4 heteroatoms, selected from nitrogen, sulfur, phosphorus, and/or oxygen within the ring; wherein said heterocyclyl is optionally substituted with one, two or three substituents independently selected from the group consisting of C 1-6 alkyl, -O-R 20, -N(R 20)(R 22), -N(R 20)-C -OR 20 and -C -OR 20; and wherein said C 1-6 alkyl is optionally substituted with one, two or three substituents independently selected from the group consisting of halo and heteroaryl comprising single or multiple rings comprising 1 to 15 carbon atoms and 1 to 4 heteroatoms selected from oxygen, nitrogen and sulfur within at least one ring; each R 4 is hydrogen; R 20 and R 22 are in each instance independently selected from the group consisting of hydrogen and C 1-6 alkyl;
A method for managing user equipment, UE, communications in a wireless communications system, comprising: receiving, at the UE, control information located at one or more resource element positions in a control channel region of a downlink subframe or a slot of the downlink subframe, wherein the downlink subframe comprises: two slots and includes one or more quick downlink channels having a single-slot transmission time interval, TTI; and one or more resource element blocks each comprising one or more resource elements into which a frequency bandwidth is divided within one or both of the two slots, wherein each of the one or more resource element blocks comprises the control channel region or a data channel region corresponding to the one or more quick downlink channels; and wherein at least the control channel region is multiplexed, within at least one symbol, with a legacy control channel region; performing a check on the control channel region received at each of the one or more resource element positions to determine whether corresponding control information is for the UE; determining, where the check indicates the corresponding control information is for the UE, a position of the data channel region and a transmission time interval, TTI, length of the data channel region based on the corresponding control information; and receiving, at the determined position, downlink data in the data channel region. two slots and includes one or more quick downlink channels having a single-slot transmission time interval, TTI; and one or more resource element blocks each comprising one or more resource elements into which a frequency bandwidth is divided within one or both of the two slots, wherein each of the one or more resource element blocks comprises the control channel region or a data channel region corresponding to the one or more quick downlink channels; and wherein at least the control channel region is multiplexed, within at least one symbol, with a legacy control channel region; performing a check on the control channel region received at each of the one or more resource element positions to determine whether corresponding control information is for the UE; determining, where the check indicates the corresponding control information is for the UE, a position of the data channel region and a transmission time interval, TTI, length of the data channel region based on the corresponding control information; and receiving, at the determined position, downlink data in the data channel region.
A rail support arrangement (100, 100a, 100b, 100c, 100d, 800, 1000, 1100) for supporting one or more rails, the rail support arrangement comprising: a slab (110, 1010), formed from fiber reinforced concrete, having two or more primary transverse grooves (120, 1121A, 1121B, 1122A, 1122B), wherein a height of the slab is no greater than 15 cm; and a plurality of rail supports, each rail support being mounted in a respective primary transverse groove and comprising at least one projection configured to engage with a rail fastening system, received in the respective primary transverse groove, that couples a rail to the rail support so as to restrict or prevent a movement of the rail in a direction (x) perpendicular to the direction (y) of the respective primary transverse groove. a slab (110, 1010), formed from fiber reinforced concrete, having two or more primary transverse grooves (120, 1121A, 1121B, 1122A, 1122B), wherein a height of the slab is no greater than 15 cm; and a plurality of rail supports, each rail support being mounted in a respective primary transverse groove and comprising at least one projection configured to engage with a rail fastening system, received in the respective primary transverse groove, that couples a rail to the rail support so as to restrict or prevent a movement of the rail in a direction (x) perpendicular to the direction (y) of the respective primary transverse groove.
A base station apparatus (Fig. 2, Fig. 8), wherein a plurality of bandwidths is defined for use in a communication system, each of said plurality of bandwidths having a common center frequency, the base station apparatus (Fig. 2, Fig. 8) comprising: means configured to transmit transmission data by using a bandwidth of the plurality of bandwidths in a band centered on the common center frequency; and means configured to transmit a control channel into a center band of a predetermined width having as center frequency the common center frequency of the bandwidth used for data transmission. means configured to transmit transmission data by using a bandwidth of the plurality of bandwidths in a band centered on the common center frequency; and means configured to transmit a control channel into a center band of a predetermined width having as center frequency the common center frequency of the bandwidth used for data transmission.
A method for enhancing a sounding reference signal in a non-root wireless communication device (102a-c, 804), comprising: determining that all SRS transmissions for the wireless communication device (102a-c, 804) are to occur in an uplink pilot time slot (UpPTS) portion of a transition subframe, wherein the transition subframe is used to transition between a downlink subframe and a uplink subframe; determining whether available uplink bandwidth for the UpPTS portion is greater than available uplink bandwidth for a normal uplink subframe; transmitting a current SRS using the available uplink bandwidth for the UpPTS portion when the available uplink bandwidth for the UpPTS portion is greater than available uplink bandwidth for the normal uplink subframe; and transmitting the current SRS using the available uplink bandwidth for the normal uplink subframe when the available uplink bandwidth for the UpPTS portion is not greater than available uplink bandwidth for the normal uplink subframe; wherein a non-root wireless communication device (102a-c, 804) has a lower bandwidth than a root wireless communication device (102a-c, 804), and wherein the available uplink bandwidth refers to the amount of available bandwidth that may be used for SRS transmissions. determining that all SRS transmissions for the wireless communication device (102a-c, 804) are to occur in an uplink pilot time slot (UpPTS) portion of a transition subframe, wherein the transition subframe is used to transition between a downlink subframe and a uplink subframe; determining whether available uplink bandwidth for the UpPTS portion is greater than available uplink bandwidth for a normal uplink subframe; transmitting a current SRS using the available uplink bandwidth for the UpPTS portion when the available uplink bandwidth for the UpPTS portion is greater than available uplink bandwidth for the normal uplink subframe; and transmitting the current SRS using the available uplink bandwidth for the normal uplink subframe when the available uplink bandwidth for the UpPTS portion is not greater than available uplink bandwidth for the normal uplink subframe; wherein a non-root wireless communication device (102a-c, 804) has a lower bandwidth than a root wireless communication device (102a-c, 804), and wherein the available uplink bandwidth refers to the amount of available bandwidth that may be used for SRS transmissions.
Method of manufacturing an insulation layer on silicon carbide (SiC), comprising the steps of - preparing a surface of the silicon carbide (SiC), - forming a first part of the insulation layer (700, 901, 951) on the surface at a temperature lower than 400° Celsius, the first part being silicon oxide - forming a second part of the insulation layer by depositing a dielectric film on the first part illuminating the surface with a light at a wavelength below and/or equal to 450nm during the formation of the first part (700, 901, 951) of the insulation layer using a light source, wherein the light source contains at least a lamp (La) and/or a laser and/or a light emitting diode and/or a plasma, wherein the silicon oxide as the first part (700, 901, 951) of the insulation layer is formed by exposing the surface to ozone (O 3), the ozone is generated at least partly from oxygen (O 2) by the light which illuminates the surface of the silicon carbide (SiC), and nitrogen oxides are provided together with the oxygen gaseous. - preparing a surface of the silicon carbide (SiC), - forming a first part of the insulation layer (700, 901, 951) on the surface at a temperature lower than 400° Celsius, the first part being silicon oxide - forming a second part of the insulation layer by depositing a dielectric film on the first part illuminating the surface with a light at a wavelength below and/or equal to 450nm during the formation of the first part (700, 901, 951) of the insulation layer using a light source, wherein the light source contains at least a lamp (La) and/or a laser and/or a light emitting diode and/or a plasma, wherein the silicon oxide as the first part (700, 901, 951) of the insulation layer is formed by exposing the surface to ozone (O 3), the ozone is generated at least partly from oxygen (O 2) by the light which illuminates the surface of the silicon carbide (SiC), and nitrogen oxides are provided together with the oxygen gaseous.
A method in a Multimedia Broadcast Multicast Service Gateway, MBMS GW, node for restoring a Multimedia Broadcast Multicast Service, MBMS, session after path failure, comprising: detecting (201a, 701) a path failure associated with an old path between the MBMS GW node and an old Serving General Packet Radio Service, GPRS, Support Node, SGSN,, which old SGSN controls at least one MBMS session; selecting (202a, 705) a new SGSN to re-establish said at least one MBMS session; detecting (208b, 714) that the old path between the MBMS GW node and the old SGSN has been recovered; and sending (209b, 715) to the old SGSN an MBMS session stop request in order to delete the MBMS session in the old SGSN. detecting (201a, 701) a path failure associated with an old path between the MBMS GW node and an old Serving General Packet Radio Service, GPRS, Support Node, SGSN,, which old SGSN controls at least one MBMS session; selecting (202a, 705) a new SGSN to re-establish said at least one MBMS session; detecting (208b, 714) that the old path between the MBMS GW node and the old SGSN has been recovered; and sending (209b, 715) to the old SGSN an MBMS session stop request in order to delete the MBMS session in the old SGSN.
Apparatus, comprising: a medical instrument; and at least one tracking sensor disposed at a distal portion of the instrument, the sensor comprising: a rigid ferrite core comprising a tube containing a ferrite powder, and a coil wound around the tube, wherein the ferrite powder is compressed within the tube. a medical instrument; and at least one tracking sensor disposed at a distal portion of the instrument, the sensor comprising: a rigid ferrite core comprising a tube containing a ferrite powder, and a coil wound around the tube, a rigid ferrite core comprising a tube containing a ferrite powder, and a coil wound around the tube, wherein the ferrite powder is compressed within the tube.
A heat exchanger housing for at least one heat exchanger, in particular a high-temperature and a low-temperature heat exchanger (2, 3), for exchanging heat between a first fluid, in particular an exhaust gas or charge air, and a second fluid, in particular a coolant, having a housing body with: - a chamber which is designed to be traversed by the second fluid and to hold a number of flow ducts which can be traversed by the first fluid; - a bypass duct which is designed to be traversed by the first fluid; wherein the chamber and the bypass duct are formed in one piece with the housing body. - a chamber which is designed to be traversed by the second fluid and to hold a number of flow ducts which can be traversed by the first fluid; - a bypass duct which is designed to be traversed by the first fluid; wherein
A system for in-situ management of pH of culture comprising a carrier and a base wherein said base is selected from Mg 2 or Ca 2, and said carrier is a hydrogel, which hydrogel comprises 2-hydroxyethyl methacrylate (HEMA) as monomer; Azoisobutyronitrile, (AIBN) as initiator and optionally ethylene glycol dimethacrylate (EGDMA) as cross linker, wherein the carrier is loaded with base; and said carrier is non-responsive to pH change of culture.
A process for the oxidation of alcohols to carboxylic acids, wherein said process comprises: a step of subjecting a starting material comprising one or more primary alcohols with a carbon number of 14 or more to an oxidation reaction using an oxoammonium cation and a co-oxidant as oxidizing agents at a reaction temperature of 50°C or higher, to obtain one or more carboxylic acids, wherein the starting material comprising the one or more primary alcohols is a wax or a processed wax resulting from a full or partial hydrolysis of the wax esters contained in the wax before processing.
A urinary catheter assembly comprising: a urinary catheter having a tubular shaft extending between a insertable end and a discharge end,; and a receptacle arranged to accommodate and maintain the urinary catheter in a curled storage state, in which the tubular shaft of the catheter is arranged in at least one coil; characterized in that said tubular shaft is provided with an elastic reinforcement element (7; 7'; 7"; 7"') having an extension in the axial direction of the tubular shaft, and in that said elastic reinforcement element (7; 7'; 7"; 7"') is arranged to provide a force to uncurl the catheter when removed from said receptacle. a urinary catheter having a tubular shaft extending between a insertable end and a discharge end,; and a receptacle arranged to accommodate and maintain the urinary catheter in a curled storage state, in which the tubular shaft of the catheter is arranged in at least one coil; characterized in that said tubular shaft is provided with an elastic reinforcement element (7; 7'; 7"; 7"') having an extension in the axial direction of the tubular shaft, and in that said elastic reinforcement element (7; 7'; 7"; 7"') is arranged to provide a force to uncurl the catheter when removed from said receptacle.
Timepiece wheel set comprising at least a first level having a first timepiece function and a second level parallel to said first level and having a second timepiece function different from said first timepiece function, said wheel set comprising a bearing defining a main axis and an axial direction, and first drive or guide means directly or indirectly joined to said bearing, wherein said first level is solid so as to protect said second level, said second level comprises second drive or guide means, and wherein said first level is at least partially transparent to allow said second level to be seen, characterized in that said first level includes a transparent plate, said bearing being joined to said transparent plate, and said second drive or guide means projecting in said axial direction relative to said first level and being joined to said transparent plate, and characterized in that said second drive or guide means include a peripheral cam and are transparent.
A controlled microstructure copolymer having from 15 to 65 weight percent of 2,3,3,3-tetrafluoropropene monomer units and 85 to 35 weight percent of vinylidene fluoride monomer units, wherein said copolymer is formed by a semi-batch process in which the weight ratio of 2,3,3,3-tetrafluoropropene to vinylidene fluoride in the initial charge is from 0.1 to 0.9 times, or from 1.1 to 10 times the steady state monomer ratio in the delay feed.
A method of producing a radiopaque stent graft comprising: treating an exterior surface of a base stent graft to produce a functionalized surface; disposing a tie layer over the functionalized surface; disposing an adherent layer over the tie layer; etching a slot into the adherent layer to produce an etched layer; treating the etched layer; and positioning a radiopaque marker in the slot of the etched layer to produce a filled slot and thereby produce the radiopaque stent graft. treating an exterior surface of a base stent graft to produce a functionalized surface; disposing a tie layer over the functionalized surface; disposing an adherent layer over the tie layer; etching a slot into the adherent layer to produce an etched layer; treating the etched layer; and positioning a radiopaque marker in the slot of the etched layer to produce a filled slot and thereby produce the radiopaque stent graft.