mhurhangee/ep-ind-claims huggingface dataset:
Assembly method for mounting a panel heater (1.1) in a room of a building, comprising the following steps: - laying a first heating mat (4.1) with an electric heating means on a structural element of the building, - laying a second heating mat (4.2) with a further electrical heating means next to the first heating mat (4.1) on the building element of the building and making (404.1) an electrical connection (40.1) of the first heating mat (4.1) to the second heating mat (4.2), - connecting at least the first heating mat (4.1) to a power source, characterized in that the production (404.1) of the electrical connection (40.1) of the first heating mat (4.1) to the second heating mat (4.2) comprises a placement (404.2) of a connection unit at a connection interface of the first heating mat (4.1) and at a mating connection interface of the second heating mat (4.1, 4.2), wherein, during placement (404.2) of the connecting unit, the first and second heating mats (4.1, 4.2) are arranged at least in sections between a planar connecting body of the connecting unit and a planar fastening body of the connecting unit. - laying a first heating mat (4.1) with an electric heating means on a structural element of the building, - laying a second heating mat (4.2) with a further electrical heating means next to the first heating mat (4.1) on the building element of the building and making (404.1) an electrical connection (40.1) of the first heating mat (4.1) to the second heating mat (4.2), - connecting at least the first heating mat (4.1) to a power source,
A method of manufacturing a three-dimensional cover plate, comprising: providing a transparent substrate (110, 310, 410) having a side surface, the transparent substrate (110, 310, 410) being formed of glass; providing a side panel (120, 320, 420), the side panel (120, 320, 420) being formed of sapphire; forming an inorganic material layer on a side surface of the side panel (120, 320, 420), wherein the inorganic material layer is a silicon layer or a silicon dioxide layer; stacking the side panel (120, 320, 420) and the transparent substrate (110, 310, 410) to form a contact surface between the side surface of the transparent substrate (110, 310, 410) and the inorganic material layer formed on the side surface of the side panel (120, 320, 420); applying an electrical field to the side panel (120, 320, 420) and the transparent substrate (110, 310, 410), the side panel (120, 320, 420) connecting to an anode of the electrical field, and the transparent substrate (110, 310, 410) connecting to a cathode of the electrical field, wherein the electrical field has a voltage in a range from 300 V to 800 V; and heating the transparent substrate (110, 310, 410) and the side panel (120, 320, 420) to form a first binding layer (130, 230, 330, 430) at the contact surface, wherein a heating temperature is in a range from 200°C to 400°C. providing a transparent substrate (110, 310, 410) having a side surface, the transparent substrate (110, 310, 410) being formed of glass; providing a side panel (120, 320, 420), the side panel (120, 320, 420) being formed of sapphire; forming an inorganic material layer on a side surface of the side panel (120, 320, 420), wherein the inorganic material layer is a silicon layer or a silicon dioxide layer; stacking the side panel (120, 320, 420) and the transparent substrate (110, 310, 410) to form a contact surface between the side surface of the transparent substrate (110, 310, 410) and the inorganic material layer formed on the side surface of the side panel (120, 320, 420); applying an electrical field to the side panel (120, 320, 420) and the transparent substrate (110, 310, 410), the side panel (120, 320, 420) connecting to an anode of the electrical field, and the transparent substrate (110, 310, 410) connecting to a cathode of the electrical field, wherein the electrical field has a voltage in a range from 300 V to 800 V; and heating the transparent substrate (110, 310, 410) and the side panel (120, 320, 420) to form a first binding layer (130, 230, 330, 430) at the contact surface, wherein a heating temperature is in a range from 200°C to 400°C.
An apparatus for in-flight surface treating powder particles, in particular micro-particles and/or nano-particles, said apparatus comprising: a dielectric barrier discharge torch including: an electrode structure including an upstream shell-type electrode and a downstream shell-type electrode, each shell-type electrode having a pair of semi-cylindrical electrodes, wherein the downstream shell-type electrode is disposed in a staggered configuration relative to the upstream shell-type electrode; a first inlet for feeding said torch with a plasma gas; a second inlet for feeding said torch with a particulate powder material; and a discharge chamber for treating said particulate powder material, said discharge chamber comprising the electrode structure disposed on an outer surface thereof; and means for collecting the surface treated particles; wherein a plasma discharge is created by passing the plasma gas through said discharge chamber; said plasma discharge causing in-flight modification of surface properties of the particles. a dielectric barrier discharge torch including: an electrode structure including an upstream shell-type electrode and a downstream shell-type electrode, each shell-type electrode having a pair of semi-cylindrical electrodes, wherein the downstream shell-type electrode is disposed in a staggered configuration relative to the upstream shell-type electrode; a first inlet for feeding said torch with a plasma gas; a second inlet for feeding said torch with a particulate powder material; and a discharge chamber for treating said particulate powder material, said discharge chamber comprising the electrode structure disposed on an outer surface thereof; and an electrode structure including an upstream shell-type electrode and a downstream shell-type electrode, each shell-type electrode having a pair of semi-cylindrical electrodes, wherein the downstream shell-type electrode is disposed in a staggered configuration relative to the upstream shell-type electrode; a first inlet for feeding said torch with a plasma gas; a second inlet for feeding said torch with a particulate powder material; and a discharge chamber for treating said particulate powder material, said discharge chamber comprising the electrode structure disposed on an outer surface thereof; and means for collecting the surface treated particles; wherein a plasma discharge is created by passing the plasma gas through said discharge chamber; said plasma discharge causing in-flight modification of surface properties of the particles.
An independently-controlled PTC (Positive Temperature Coefficient) heater, comprising: a PTC unit including a guide frame having an opening to which a first PTC element and a second PTC element are mounted; a first electrode plate having a first body configured to make surface contact with one surface of the first PTC element and a first connector extending form the first body; a second electrode plate having a second body configured to make surface contact with one surface of the second PTC element and a second connector extending from the second body; and a common electrode plate having a third body configured to make contact with the other surfaces of both the first and second PTC elements (110-1, 110-2) and a third connector extending form the third body, wherein the second connector extends at different location from the first connector, the third connector extends at different location from the first and second connectors (133, 143) and wherein the second and the third connectors (143, 153) extend in the same direction as the first connector; and a heat diffusion fin, characterized in that the independently-controlled PTC heater further comprises: a heating tube in which the PTC unit is mounted and made of a metal material; and an insulation member configured to insulate the first electrode plate, the second electrode plate and the common electrode plate from an outside; and wherein the heat diffusion fin is provided at a side of the heating tube. a PTC unit including a guide frame having an opening to which a first PTC element and a second PTC element are mounted; a first electrode plate having a first body configured to make surface contact with one surface of the first PTC element and a first connector extending form the first body; a second electrode plate having a second body configured to make surface contact with one surface of the second PTC element and a second connector extending from the second body; and a common electrode plate having a third body configured to make contact with the other surfaces of both the first and second PTC elements (110-1, 110-2) and a third connector extending form the third body, wherein the second connector extends at different location from the first connector, the third connector extends at different location from the first and second connectors (133, 143) and wherein the second and the third connectors (143, 153) extend in the same direction as the first connector; and a heat diffusion fin, characterized in that the independently-controlled PTC heater further comprises: a heating tube in which the PTC unit is mounted and made of a metal material; and an insulation member configured to insulate the first electrode plate, the second electrode plate and the common electrode plate from an outside; and wherein the heat diffusion fin is provided at a side of the heating tube. a heating tube in which the PTC unit is mounted and made of a metal material; and an insulation member configured to insulate the first electrode plate, the second electrode plate and the common electrode plate from an outside; and wherein the heat diffusion fin is provided at a side of the heating tube.
Production method for a micromechanical component, comprising the following steps: providing a silicon wafer (W1; W1'; W1"; W1"') with a multiplicity of stars (SC1, SC2, SC3, SC2"; SC1"', SC2"', SC3"') wherein the silicon wafer has a first front-side surface (V1; V1', V1"; V1"') and a first rear-side surface (R1, R1', R1", R1"'); providing a high-grade steel wafer (W2; W2') with a corresponding multiplicity of carrier substrates (SS1, SS2, SS3, SS1"', SS2"', SS3"'), wherein the high-grade steel wafer has a second front-side surface (V2; V2"') and a second rear-side surface (R2; R2"'); applying a structured adhesion promoting layer to the first front-side surface (V1; V1'; V1"; V1"') and/or the second front-side surface (V2; V2"'), which has outgassing channels (SK, KG); aligning the first front-side surface (V1; V1'; V1"; V1"') and the second front-side surface (V2; V2"') according to a multiplicity of micromechanical components, each having a star (SC1, SC2, SC3; SC2"; SC1"', SC2"', SC3"') and a corresponding carrier substrate (SS1, SS2, SS3; SS1"', SS2"', SS3"'); connecting the first front-side surface (V1; V1' V1"; V1"') and the second front-side surface (V2; V2"') via the structured adhesion promoting layer with pressure being applied in such a way that each star (SC1, SC2, SC3; SC2"; SC1"', SC2"', SC3"') is connected to a corresponding carrier substrate (SS1, SS2, SS3; SS1"', SS2"', SS3"') according to a respective micromechanical component, wherein a gas from the ambient atmosphere can escape to the outside through the outgassing channels (SK, KG); singulating the micromechanical components. providing a silicon wafer (W1; W1'; W1"; W1"') with a multiplicity of stars (SC1, SC2, SC3, SC2"; SC1"', SC2"', SC3"') wherein the silicon wafer has a first front-side surface (V1; V1', V1"; V1"') and a first rear-side surface (R1, R1', R1", R1"'); providing a high-grade steel wafer (W2; W2') with a corresponding multiplicity of carrier substrates (SS1, SS2, SS3, SS1"', SS2"', SS3"'), wherein the high-grade steel wafer has a second front-side surface (V2; V2"') and a second rear-side surface (R2; R2"'); applying a structured adhesion promoting layer to the first front-side surface (V1; V1'; V1"; V1"') and/or the second front-side surface (V2; V2"'), which has outgassing channels (SK, KG); aligning the first front-side surface (V1; V1'; V1"; V1"') and the second front-side surface (V2; V2"') according to a multiplicity of micromechanical components, each having a star (SC1, SC2, SC3; SC2"; SC1"', SC2"', SC3"') and a corresponding carrier substrate (SS1, SS2, SS3; SS1"', SS2"', SS3"'); connecting the first front-side surface (V1; V1' V1"; V1"') and the second front-side surface (V2; V2"') via the structured adhesion promoting layer with pressure being applied in such a way that each star (SC1, SC2, SC3; SC2"; SC1"', SC2"', SC3"') is connected to a corresponding carrier substrate (SS1, SS2, SS3; SS1"', SS2"', SS3"') according to a respective micromechanical component, wherein a gas from the ambient atmosphere can escape to the outside through the outgassing channels (SK, KG); singulating the micromechanical components.
An ink-receptive coating composition comprising: a. an aqueous anionic polyurethane dispersion; and b. an aqueous solution of a nonionic polyurethane. a. an aqueous anionic polyurethane dispersion; and b. an aqueous solution of a nonionic polyurethane.
A tap-switching autotransformer to be interposed between a utility power supply and a facility for regulating the voltage supplied to said facility comprising: taps (40, 42,44) of said autotransformer; an electronics sub-assembly comprising a control module for automatically controlling switching of the taps (40, 42, 44) to control an output voltage from said autotransformer; a housing for holding said electronics sub-assembly and at least one winding (34, 36, 38); guides (132, 134) in said housing to guide said electronics sub-assembly during removal thereof from said housing for repair or replacement; electronic bypass switches (52, 54, 56) of said electronics sub-assembly to enable an electronically-actuated short-circuit between two of said taps (40, 42, 44); and a mechanical by-pass switch (60, 62, 64) which enables a mechanically-actuated short-circuit to be maintained between the taps (40, 42, 44), said mechanically-actuated short-circuit being; Separated from said electronically-actuated short-circuit and enabling said electronics sub-assembly to be safely removed from said housing. taps (40, 42,44) of said autotransformer; an electronics sub-assembly comprising a control module for automatically controlling switching of the taps (40, 42, 44) to control an output voltage from said autotransformer; a housing for holding said electronics sub-assembly and at least one winding (34, 36, 38); guides (132, 134) in said housing to guide said electronics sub-assembly during removal thereof from said housing for repair or replacement; electronic bypass switches (52, 54, 56) of said electronics sub-assembly to enable an electronically-actuated short-circuit between two of said taps (40, 42, 44); and a mechanical by-pass switch (60, 62, 64) which enables a mechanically-actuated short-circuit to be maintained between the taps (40, 42, 44), said mechanically-actuated short-circuit being; Separated from said electronically-actuated short-circuit and enabling said electronics sub-assembly to be safely removed from said housing.
A drainmast which releases water into an airstream traveling in a fore-aft direction, comprising: a water-discharging exit (211/212) on its underside for communicating with the airstream, and a post-exit platform on its underside situated aft of the exit (211/212);wherein the exit (211/212) is vertically offset downward from the post-exit platform; and characterised by a foot defining the exit (211/212) and forming the post-exit platform; wherein the foot comprises a ceiling and a pulpit extending downward therefrom, wherein the exit (211/212) is located on a bottom face of the pulpit. a water-discharging exit (211/212) on its underside for communicating with the airstream, and a post-exit platform on its underside situated aft of the exit (211/212);wherein the exit (211/212) is vertically offset downward from the post-exit platform; and characterised by a foot defining the exit (211/212) and forming the post-exit platform; wherein the foot comprises a ceiling and a pulpit extending downward therefrom, wherein the exit (211/212) is located on a bottom face of the pulpit.
A cutting roll element for vegetables, which has a cutting surface rotatable around its axis, characterized in that the cutting surface of a cutting roll element is in at least one location provided with cutting blades, which are successive relative to the rotating direction and which cut the surface of vegetables, and with pickup rolls lifting vegetables up and controlling the cutting of vegetables for shaping and/or peeling a vegetable to be cut, and that and the pickup blade relative to the continuous surface of revolution and/or the axis of the cutting element is 0,02 - 1,0 mm and the height of the cutting blade relative to the continuous surface of revolution of the cutting element is 2 - 20 mm.
A holding device for holding cylindrical fiber optical components comprising at least one stackable body, each stackable body having at least one recess adapted to receive two adjacent cylindrical fiber optical components (10-i), wherein the recess comprises an opening having a first insertion direction for the two adjacent cylindrical fiber optical components (10-i) and characterized in that the recess accommodates the two received adjacent cylindrical fiber optical components (10-i) side-by-side within the recess in a plane orthogonal to the first insertion direction.
An inhibitor of the expression of TSC22D4 that is an interfering ribonucleic acid, comprising at least one of the following sequences: 5'- GGACGUGUGUGGAUGUUUA-3' (SEQ ID No. 1); 5'- GGAUGUUUACGAGAGAGAU-3' (SEQ ID No. 3); 5'- AGUCCCACCUCAUGUUUGC-3' (SEQ ID No. 5); or an antisense sequence thereof. 5'- GGACGUGUGUGGAUGUUUA-3' (SEQ ID No. 1); 5'- GGAUGUUUACGAGAGAGAU-3' (SEQ ID No. 3); 5'- AGUCCCACCUCAUGUUUGC-3' (SEQ ID No. 5); or an antisense sequence thereof.
Bearing arrangement with a first bearing component, comprising a bearing pin and a coupling pin, and a second bearing component, the bearing components being mounted on a wall to be rotatable about a common axis of rotation, wherein - the bearing pin extends along the axis of rotation and the coupling pin extends eccentrically with respect to the axis of rotation, - the bearing pin is received in a bearing opening of the wall, - the coupling pin is received in a guide slot of the wall and projects out of the guide slot, - the second bearing component has a first opening, in which the bearing pin is received, and a second opening, which is arranged eccentrically with respect to the first opening and in which the coupling pin is received, - the bearing pin is connected with the second bearing component by way of detent means and - the second bearing component is supported on the coupling pin. - the bearing pin extends along the axis of rotation and the coupling pin extends eccentrically with respect to the axis of rotation, - the bearing pin is received in a bearing opening of the wall, - the coupling pin is received in a guide slot of the wall and projects out of the guide slot, - the second bearing component has a first opening, in which the bearing pin is received, and a second opening, which is arranged eccentrically with respect to the first opening and in which the coupling pin is received, - the bearing pin is connected with the second bearing component by way of detent means and - the second bearing component is supported on the coupling pin.
A method for a client device to establish connectivity for data traffic, the method comprising: establishing a first connectivity with a wireless communication network via a serving node through use of a first set of credentials, wherein the first set of credentials are usable to gain access to the wireless communication network; determining that data for the client device is to be communicated; determining whether a second connectivity needs to be established to communicate the data for the client device, wherein the determination of whether the second connectivity needs to be established comprises determining, based on information describing the data, whether the first connectivity can be used to communicate the data, wherein it is determined that the second connectivity does not need to be established when the first connectivity can be used to communicate the data; and negotiating, if the second connectivity needs to be established, establishment of the second connectivity via the serving node through use of a second set of credentials, wherein the data to be communicated is associated with said second set of credentials. establishing a first connectivity with a wireless communication network via a serving node through use of a first set of credentials, wherein the first set of credentials are usable to gain access to the wireless communication network; determining that data for the client device is to be communicated; determining whether a second connectivity needs to be established to communicate the data for the client device, wherein the determination of whether the second connectivity needs to be established comprises determining, based on information describing the data, whether the first connectivity can be used to communicate the data, wherein it is determined that the second connectivity does not need to be established when the first connectivity can be used to communicate the data; and negotiating, if the second connectivity needs to be established, establishment of the second connectivity via the serving node through use of a second set of credentials, wherein the data to be communicated is associated with said second set of credentials.
A compound useful as a magnetic resonance imaging contrast agent and a therapeutic agent, said compound having a structure represented by: Y-X-Z wherein, X is Mn, and Y and Z are each independently a bisphosphonate of the formula: wherein: R 1 is -OH, R 2, R 3, R 4, R 5 and R 6 are each independently H, alkyl, or -LR', wherein at least one of R 2, R 3, R 4, R 5 and R 6 is -LR', wherein each L is present or absent and when present is a linking group, and wherein each R' is independently a therapeutic agent, or a pharmaceutically acceptable hydrate and/or salt thereof. R 1 is -OH, R 2, R 3, R 4, R 5 and R 6 are each independently H, alkyl, or -LR', wherein at least one of R 2, R 3, R 4, R 5 and R 6 is -LR', wherein each L is present or absent and when present is a linking group, and wherein each R' is independently a therapeutic agent, or a pharmaceutically acceptable hydrate and/or salt thereof.
A polypeptide having an amino acid sequence selected from the group consisting of GCSMNPARSFGC (SEQ ID NO: 5), CMNPARSFGC (SEQ ID NO: 6), CWPSALPTC (SEQ ID NO: 2); and CNNNTTQGC (SEQ ID NO: 3).
A method in a positioning node of a communication network, the method comprising receiving a positioning request at the positioning node and characterized by: calculating one or more positioning Quality-of-Service (QoS) values at specified confidence levels, for different positioning methods supported by the positioning node, based on historical positioning performance data maintained for those positioning methods; and selecting one or more positioning methods for use in responding to the positioning request, based on comparing the calculated positioning QoS values with positioning performance requirements associated with the positioning request. calculating one or more positioning Quality-of-Service (QoS) values at specified confidence levels, for different positioning methods supported by the positioning node, based on historical positioning performance data maintained for those positioning methods; and selecting one or more positioning methods for use in responding to the positioning request, based on comparing the calculated positioning QoS values with positioning performance requirements associated with the positioning request.