mhurhangee/ep-ind-claims huggingface dataset:
A lithium-sulphur cell comprising an anode comprising lithium metal or lithium metal alloy; a cathode comprising a mixture of electroactive sulphur material and solid electroconductive material; and a liquid electrolyte comprising at least one lithium salt, lithium polysulphides and a solvent comprising a dinitrile, wherein the lithium polysulphides are dissolved in the dinitrile. an anode comprising lithium metal or lithium metal alloy; a cathode comprising a mixture of electroactive sulphur material and solid electroconductive material; and a liquid electrolyte comprising at least one lithium salt, lithium polysulphides and a solvent comprising a dinitrile, wherein the lithium polysulphides are dissolved in the dinitrile.
Use of a heat exchanger for exchanging heat between a first fluid and a second fluid: - said exchanger having a housing inside which is disposed a plurality of modules (15, 15a, 15b, 15c) respectively comprising an upper plate and a lower plate that are joined so as to define between said plates (17, 19) an inner cavity forming a first circulation channel for the first fluid, a protuberance which extends in the same plane as the plate is present at the corner where the small side and the large side of the parallelepipedal form of the plates (17, 19) meet, - at least a second circulation channel for the second fluid being delimited by the housing and a space between said modules, characterized in that the heat exchanger is used as an internal exchanger and is positioned within an air conditioning loop so as to exchange heat between a high-pressure branch and a low-pressure branch of said loop, - wherein, at the side of this protuberance and over the rest of the small side, it will be noted that the contour of the plate is inclined in the direction of orifices positioned on the opposite edge, such that it delimits, with the internal wall of the housing, an intake chamber dedicated to the low-pressure fluid. - said exchanger having a housing inside which is disposed a plurality of modules (15, 15a, 15b, 15c) respectively comprising an upper plate and a lower plate that are joined so as to define between said plates (17, 19) an inner cavity forming a first circulation channel for the first fluid, a protuberance which extends in the same plane as the plate is present at the corner where the small side and the large side of the parallelepipedal form of the plates (17, 19) meet, - at least a second circulation channel for the second fluid being delimited by the housing and a space between said modules, characterized in that the heat exchanger is used as an internal exchanger and is positioned within an air conditioning loop so as to exchange heat between a high-pressure branch and a low-pressure branch of said loop, - wherein, at the side of this protuberance and over the rest of the small side, it will be noted that the contour of the plate is inclined in the direction of orifices positioned on the opposite edge, such that it delimits, with the internal wall of the housing, an intake chamber dedicated to the low-pressure fluid.
A method for facilitating communication between an Evolved Node B, eNB, and a user equipment, UE, for a Long Term Evolution, LTE, system, the method comprising: transmitting a downlink control message from the eNB to the UE over a downlink control channel; retransmitting one or more copies of the downlink control message from the eNB to the UE over the downlink control channel in accordance with a determined downlink control message decoding status of the UE; receiving and storing the transmitted downlink control message and the retransmitted one or more copies of the downlink control message at the UE; and decoding using a combination of at least some of the transmitted downlink control message and the retransmitted one or more copies of the downlink control message at the UE, characterized in that the method further comprising: determining an initial number of copies of the downlink control message to transmit, wherein said initial number of copies is determined based on measured channel conditions; encoding said initial number of copies differently such that the UE is required to combine all of the initial number of copies in order to decode the downlink control message; and transmitting said initial number of copies from the eNB to the UE. transmitting a downlink control message from the eNB to the UE over a downlink control channel; retransmitting one or more copies of the downlink control message from the eNB to the UE over the downlink control channel in accordance with a determined downlink control message decoding status of the UE; receiving and storing the transmitted downlink control message and the retransmitted one or more copies of the downlink control message at the UE; and decoding using a combination of at least some of the transmitted downlink control message and the retransmitted one or more copies of the downlink control message at the UE, characterized in that the method further comprising: determining an initial number of copies of the downlink control message to transmit, wherein said initial number of copies is determined based on measured channel conditions; encoding said initial number of copies differently such that the UE is required to combine all of the initial number of copies in order to decode the downlink control message; and transmitting said initial number of copies from the eNB to the UE. determining an initial number of copies of the downlink control message to transmit, wherein said initial number of copies is determined based on measured channel conditions; encoding said initial number of copies differently such that the UE is required to combine all of the initial number of copies in order to decode the downlink control message; and transmitting said initial number of copies from the eNB to the UE.
A surgical instrument having a hermetic chamber, wherein at least one electrical connection (9-9 VIII) is provided from the hermetic chamber to outside the hermetic chamber to an outer chamber, characterized in that the at least one electrical connection (9-9 VIII) is applied to an electrically insulating substrate (21, 100), wherein a first insulation layer (14, 25) is applied at least to the electrical connection (9-9 VIII), and another layer (15, 23) is applied to the first insulation layer (14, 25) that is suitable for a hermetic connection (17, 32) and that furthermore is hermetically connected to a wall (16, 28, 29) of the surgical instrument.
An optical computing device comprising: a light-diffraction element group including N planar light-diffraction elements (11a1-11aN) made of a photo-curable resin, where N is a natural number not less than 2; and a tubular body for housing the light-diffraction element group, the tubular body having an inner surface to which at least a part of a perimeter of each of the plurality of planar light-diffraction elements (11a1-1 1aN) of the light-diffraction element group is fixed, characterized in that the N planar light-diffraction elements (11a1-11aN) are arranged such that an upper surface of a planar light-diffraction element j, where j is a natural number not less than 1 and not more than N-1, faces a lower surface of a planar light-diffraction element j+1 that is adjacent to the planar light-diffraction element j, and such that light is transmitted through the N planar light-diffraction elements (11a1-11aN) in sequence so that N times of optical computing is carried out. a light-diffraction element group including N planar light-diffraction elements (11a1-11aN) made of a photo-curable resin, where N is a natural number not less than 2; and a tubular body for housing the light-diffraction element group, the tubular body having an inner surface to which at least a part of a perimeter of each of the plurality of planar light-diffraction elements (11a1-1 1aN) of the light-diffraction element group is fixed, characterized in that the N planar light-diffraction elements (11a1-11aN) are arranged such that an upper surface of a planar light-diffraction element j, where j is a natural number not less than 1 and not more than N-1, faces a lower surface of a planar light-diffraction element j+1 that is adjacent to the planar light-diffraction element j, and such that light is transmitted through the N planar light-diffraction elements (11a1-11aN) in sequence so that N times of optical computing is carried out.
A laundry treating apparatus comprising: a washing tub in which washing water is received; a drum configured to rotate about a rotation axis extending in a front-rear direction within the washing tub; and a lifter (61a, 61b, 62a, 62b, 63a, and 63b) disposed on an inner circumferential surface of the drum and configured to revolve around the rotation axis when the drum rotates, wherein the lifter (61a, 61b, 62a, 62b, 63a, and 63b) comprises: a lifter frame installed on the inner circumferential surface of the drum; and a frame cover configured to be coupled to the lifter frame and protrude radially inward from the inner circumferential surface of the drum, wherein a seating groove is formed in the lifter frame along a circumference of the lifter frame that is coupled to the inner circumferential surface of the drum, wherein the frame cover is coupled to the lifter frame with a lower end of the frame cover mounted to the seating groove, and characterized in that a spacing rib configured to space an inner surface of the lower end of the frame cover mounted to the seating groove from an outer surface of the lifter frame is protrudingly formed in the seating groove. a washing tub in which washing water is received; a drum configured to rotate about a rotation axis extending in a front-rear direction within the washing tub; and a lifter (61a, 61b, 62a, 62b, 63a, and 63b) disposed on an inner circumferential surface of the drum and configured to revolve around the rotation axis when the drum rotates, a lifter frame installed on the inner circumferential surface of the drum; and a frame cover configured to be coupled to the lifter frame and protrude radially inward from the inner circumferential surface of the drum, wherein a seating groove is formed in the lifter frame along a circumference of the lifter frame that is coupled to the inner circumferential surface of the drum, wherein the frame cover is coupled to the lifter frame with a lower end of the frame cover mounted to the seating groove, and characterized in that a spacing rib configured to space an inner surface of the lower end of the frame cover mounted to the seating groove from an outer surface of the lifter frame is protrudingly formed in the seating groove. wherein a seating groove is formed in the lifter frame along a circumference of the lifter frame that is coupled to the inner circumferential surface of the drum, wherein the frame cover is coupled to the lifter frame with a lower end of the frame cover mounted to the seating groove, and characterized in that a spacing rib configured to space an inner surface of the lower end of the frame cover mounted to the seating groove from an outer surface of the lifter frame is protrudingly formed in the seating groove.
An alkaline protease mutant having improved stability to a chelating agent in comparison to the parent alkaline protease KSM-KP43 (FERM BP-6532), consisting of an amino acid sequence obtained by substituting an amino acid residue at a position corresponding to position 294 in the amino acid sequence as shown in SEQ ID NO:2 with threonine or an amino acid sequence having an identity of at least 95% thereto, wherein the amino acid residue at position 6 of the amino acid sequence as shown in SEQ ID NO: 2 or at a position corresponding thereto is selected from the group consisting of S, T, C, Q, Y, R, K, H, A, V, L, I, M, W and F.
Field device used in automation engineering with a housing and a sensor unit that is sensitive to a process variable of a medium, having a channel-shaped guide designed to receive the sensor unit of the field device wherein the sensor unit projects out of the housing through an opening at the end of the guide, wherein a clamping bracket and a screw are introduced into the housing in an area of the housing that is adjacent to the opening of the guide, wherein the clamping bracket can be moved in the housing, by means of the screw, by a predefinable offset in the direction of the sensor unit, and wherein the clamping bracket moved in the direction of the sensor unit is designed to press with a first clamping bracket section of the clamping bracket, in an essentially radial manner, on a clamping area of the sensor unit which is arranged in the housing and faces towards the opening of the guide, wherein the clamping bracket is inserted in a recess of the housing and a first retainer preventing the clamping bracket from being removed and/or from falling out of the recess is formed in such a way that a pin-shaped element is inserted into a second clamping bracket section, which is essentially perpendicular to the first clamping bracket section, wherein said element projects through the second clamping bracket section and interacts with the housing in such a way that the clamping bracket with the inserted pin-shaped element can no longer be removed from the housing. having a channel-shaped guide designed to receive the sensor unit of the field device wherein the sensor unit projects out of the housing through an opening at the end of the guide, wherein a clamping bracket and a screw are introduced into the housing in an area of the housing that is adjacent to the opening of the guide, wherein the clamping bracket can be moved in the housing, by means of the screw, by a predefinable offset in the direction of the sensor unit, and wherein the clamping bracket moved in the direction of the sensor unit is designed to press with a first clamping bracket section of the clamping bracket, in an essentially radial manner, on a clamping area of the sensor unit which is arranged in the housing and faces towards the opening of the guide, wherein the clamping bracket is inserted in a recess of the housing and a first retainer preventing the clamping bracket from being removed and/or from falling out of the recess is formed in such a way that a pin-shaped element is inserted into a second clamping bracket section, which is essentially perpendicular to the first clamping bracket section, wherein said element projects through the second clamping bracket section and interacts with the housing in such a way that the clamping bracket with the inserted pin-shaped element can no longer be removed from the housing.
A printhead die comprising: a fluid slot area in which a plurality of fluid slots are formed; and a temperature sensing resistor, the temperature sensing resistor including an outer edge portion forming a first loop and an inner portion forming a second loop; wherein the first loop extends outside of and along an edge of the fluid slot area and surrounds the plurality of fluid slots and the second loop 250 extends in-between two adjacent fluid slots; wherein a first end of the first loop connects to a bond pad and a second end of the first loop connects to ground and wherein a first end of the second loop connects to the same bond pad as the first loop and a second end of the second loop connects to ground. a fluid slot area in which a plurality of fluid slots are formed; and a temperature sensing resistor, the temperature sensing resistor including an outer edge portion forming a first loop and an inner portion forming a second loop; wherein the first loop extends outside of and along an edge of the fluid slot area and surrounds the plurality of fluid slots and the second loop 250 extends in-between two adjacent fluid slots; wherein a first end of the first loop connects to a bond pad and a second end of the first loop connects to ground and wherein a first end of the second loop connects to the same bond pad as the first loop and a second end of the second loop connects to ground.
A method of removing particles in an injector of a diesel engine including an injector body and a control valve, wherein the injector body includes a high-pressure passage and a low-pressure passage, wherein the control valve is movably arranged in the low-pressure passage for controlling flows of a fuel from the high-pressure passage to the low-pressure passage such that an outer surface of the control valve is positioned adjacent to an inner wall of the low-pressure passage and, when an injection signal is received, the control valve blocking the low-pressure passage is moved so that the low-pressure passage is opened, the method comprising: recognizing a stop of the diesel engine; recognizing a non-input of a cranking signal to the diesel engine from a stop point of the diesel engine to a set time; inputting an injection signal to the injector of the stopped diesel engine; moving the control valve of the injector adjacently to the inner wall of the low-pressure passage in a low-pressure passage by the injection signal to remove the particles accumulated on the inner wall of the low-pressure passage, wherein the injection signal to the injector is inputted for a set time by a set period; and when a cranking signal is inputted into the diesel engine during removing the particles, stopping the removal of the particles. recognizing a stop of the diesel engine; recognizing a non-input of a cranking signal to the diesel engine from a stop point of the diesel engine to a set time; inputting an injection signal to the injector of the stopped diesel engine; moving the control valve of the injector adjacently to the inner wall of the low-pressure passage in a low-pressure passage by the injection signal to remove the particles accumulated on the inner wall of the low-pressure passage, wherein the injection signal to the injector is inputted for a set time by a set period; and when a cranking signal is inputted into the diesel engine during removing the particles, stopping the removal of the particles.
A method for redundant operation of an end terminal (EG1; EG2; EG3; EG4) relative to at least two communication nodes (GK1; GK2; GK3; GK4; B1, B2; GK5, GK6), wherein the communication nodes and the end terminal (EG1; EG2; EG3; EG4) are arranged in a communication network, wherein to operate the end terminal (EG1; EG2; EG3; EG4) relative to a first of the communication nodes (GK1; GK3; B1; GK5), the end terminal (EG1; EG2; EG3; EG4) is registered with this first communication node (GK1; GK3; B1; GK5) using a first address, wherein once registration is complete, a logical connection exists between the end terminal (EG1; EG2; EG3; EG4) and the first communication node (GK1; GK3; B1; GK5), and wherein the first address is stored in the end terminal (EG1; EG2; EG3; EG4) for registration, wherein configuration data that relate to the end terminal (EG1; EG2; EG3; EG4) and are required for operating the end terminal (EG1; EG2; EG3; EG4) are stored in the first communication node (GK1; GK3; B1; GK5), in that the accessibility of the first communication node (GK1; GK3; B1; GK5) is monitored, characterized in that if the first communication node (GK1; GK3; B1; GK5) is inaccessible a) status information regarding the inaccessibility is generated, b) based on the status information, a logical connection is established between the end terminal (EG1; EG2; EG3; EG4) and a second communication node (GK2; GK4; B2; GK7), c) the configuration data required for operating the end terminal (EG1; EG2; EG3; EG4) relative to the second communication node (GK2; GK4; B2; GK7) are transferred to the second communication node (GK2; GK4; B2; GK7), and d) the end terminal (EG1; EG2; EG3; EG4) is automatically operated relative to the second communication node (GK2; GK4; B2; GK7), to which a second address is assigned. a) status information regarding the inaccessibility is generated, b) based on the status information, a logical connection is established between the end terminal (EG1; EG2; EG3; EG4) and a second communication node (GK2; GK4; B2; GK7), c) the configuration data required for operating the end terminal (EG1; EG2; EG3; EG4) relative to the second communication node (GK2; GK4; B2; GK7) are transferred to the second communication node (GK2; GK4; B2; GK7), and d) the end terminal (EG1; EG2; EG3; EG4) is automatically operated relative to the second communication node (GK2; GK4; B2; GK7), to which a second address is assigned.
Heat exchanger, said heat exchanger comprising a bundle of tubes, allowing heat exchange between a refrigerant fluid flowing in said tubes and an external air flow, and a first collector, said heat exchanger being configured to establish a series flow for the refrigerant fluid between a first part of said tubes, leading into a first part of said first collector, said first collector and a second part of said tubes, leading into a second part of said first collector, said first collector comprising a baffle configured to disrupt the flow of the fluid between the first and the second part of said tubes, the tubes of the bundle being distributed in a first pass and a second pass, corresponding to the first part and the second part, respectively, of said tubes, the heat exchanger being characterized in that said baffle is configured to preferentially orient the refrigerant fluid towards tubes of the second part of tubes located close to a baffle, referred to as a separating baffle, of a second collector of the heat exchanger into which the tubes of said bundle lead, said separating baffle defining said series flow, said tubes of the second part of tubes located close to said separating baffle being located opposite an outlet orifice for the refrigerant fluid out of the heat exchanger.
An electronic smoking article comprising: a substantially tubular shaped cartridge body; a substantially tubular shaped inhalable substance medium that includes an inhalable substance therewith, the inhalable substance medium being positioned within the cartridge body so as to define an annular space between the inhalable substance medium and the cartridge body; an electrical heating member; and a control housing with an engaging end operatively connected to the cartridge and including an electrical energy source that provides power to the electrical heating member; wherein the inhalable substance medium is operatively positioned with the electrical heating member so as to heat at least a segment of the inhalable substance medium sufficiently to form a vapor comprising the inhalable substance within the annular space. a substantially tubular shaped cartridge body; a substantially tubular shaped inhalable substance medium that includes an inhalable substance therewith, the inhalable substance medium being positioned within the cartridge body so as to define an annular space between the inhalable substance medium and the cartridge body; an electrical heating member; and a control housing with an engaging end operatively connected to the cartridge and including an electrical energy source that provides power to the electrical heating member; wherein the inhalable substance medium is operatively positioned with the electrical heating member so as to heat at least a segment of the inhalable substance medium sufficiently to form a vapor comprising the inhalable substance within the annular space.