mhurhangee/patent-ind-claim-en huggingface dataset:
A cabinet for dangerous materials, with a cabinet body and with at least one swing door which is pivotally connected to the cabinet body in at least one pivot point , wherein - the pivot point is arranged in a stationary manner and substantially in door-side extension of an body exterior , wherein further - the cabinet body has a body volume which is measured based on a body opening (KÖ) in conjunction with a body width (KB), which together form the rectangular base area associated with the body volume, wherein furthermore - the cabinet body and the swing door are each equipped with a fire-resistant inner lining , and wherein - the cabinet body is equipped with a drip tray for any escaping dangerous materials, and - the drip tray provided inside the cabinet body fills the entire area spanned by the cabinet opening (KÖ) in conjunction with the cabinet width (KB), characterized in that - in the region of the pivot point , the inner lining of, on the one hand, the cabinet body and the inner lining of, on the other hand, the swing door are each equipped with interengaging stepped recesses , wherein - the interengaging recesses , when the swing door is closed, define an inner lining with substantially the same wall thickness (W) throughout, and that - the respective swing door is designed to be handle-free with an internal push latch , i.e. an outside of the respective swing door does not have a handle, knob or comparable handle. - the pivot point is arranged in a stationary manner and substantially in door-side extension of an body exterior , wherein further - the cabinet body has a body volume which is measured based on a body opening (KÖ) in conjunction with a body width (KB), which together form the rectangular base area associated with the body volume, wherein furthermore - the cabinet body and the swing door are each equipped with a fire-resistant inner lining , and wherein - the cabinet body is equipped with a drip tray for any escaping dangerous materials, and - the drip tray provided inside the cabinet body fills the entire area spanned by the cabinet opening (KÖ) in conjunction with the cabinet width (KB), characterized in that - in the region of the pivot point , the inner lining of, on the one hand, the cabinet body and the inner lining of, on the other hand, the swing door are each equipped with interengaging stepped recesses , wherein - the interengaging recesses , when the swing door is closed, define an inner lining with substantially the same wall thickness (W) throughout, and that - the respective swing door is designed to be handle-free with an internal push latch , i.e. an outside of the respective swing door does not have a handle, knob or comparable handle.
A surgical access port for performing an endoscopic surgical procedure in a surgical cavity of a patient, comprising: a proximal housing portion and an elongated single lumen tubular body portion extending distally from the proximal housing portion and defining a central cannula , the proximal housing portion having an inlet path for communicating with a pressurized gas line of a tube set and an outlet path for communicating with a return gas line of the tube set, the proximal housing portion accommodating an annular jet assembly that includes an upper jet ring having a nozzle tube and a lower jet ring defining a nozzle seat for receiving the nozzle tube , wherein the annular jet assembly is configured for receiving pressurized gas from the inlet path and for generating a gaseous sealing zone within the central cannula of the associated tubular body portion to maintain a stable pressure within the surgical cavity of the patient, wherein the proximal housing portion is separable from the tubular body portion .
An apparatus for manufacturing hydrogen containing water, the apparatus comprising: housing having first receiving space formed therein; cylinder detachably coupled to a top end of the housing to form second receiving space, the second receiving space bordering with a top surface of the housing; connecting passage penetrating a top wall of the housing to interconnect the first receiving space and the second receiving space; ion exchange membrane closing the connecting passage; electrolysis part comprising an anode and a cathode, the anode being disposed in the first receiving space and the cathode being disposed in the second receiving space; exhaust pipe vertically penetrating a bottom wall of the housing to interconnect the first receiving space and an external space; first waterproof membrane closing the exhaust pipe and inhibiting water from being discharged while allowing gas to be discharged, water inlet duct vertically penetrating the top wall of the housing to interconnect the first receiving space and the second receiving space; and second cap being detachably coupled to a top end of the water inlet duct, wherein the top end of the water inlet duct is positioned higher than the ion exchange membrane such that gas capture space is formed in an upper portion of the water inlet duct, gas generated in the first receiving space being captured in the gas capture space, wherein the exhaust pipe is extended to the gas capture space, wherein a top end of the exhaust pipe is positioned higher than the ion exchange membrane and lower than a bottom surface of the second cap. housing having first receiving space formed therein; cylinder detachably coupled to a top end of the housing to form second receiving space, the second receiving space bordering with a top surface of the housing; connecting passage penetrating a top wall of the housing to interconnect the first receiving space and the second receiving space; ion exchange membrane closing the connecting passage; electrolysis part comprising an anode and a cathode, the anode being disposed in the first receiving space and the cathode being disposed in the second receiving space; exhaust pipe vertically penetrating a bottom wall of the housing to interconnect the first receiving space and an external space; first waterproof membrane closing the exhaust pipe and inhibiting water from being discharged while allowing gas to be discharged, water inlet duct vertically penetrating the top wall of the housing to interconnect the first receiving space and the second receiving space; and second cap being detachably coupled to a top end of the water inlet duct, wherein the top end of the water inlet duct is positioned higher than the ion exchange membrane such that gas capture space is formed in an upper portion of the water inlet duct, gas generated in the first receiving space being captured in the gas capture space, wherein the exhaust pipe is extended to the gas capture space, wherein a top end of the exhaust pipe is positioned higher than the ion exchange membrane and lower than a bottom surface of the second cap.
A laminate structure comprising: a print film comprising ethylene-based polymer; a sealant film laminated to the print film, the sealant film comprising at least 3 layers and having an overall thickness from 15 to 30 μm, where the sealant film comprises a middle layer, an outer layer, and an inner layer disposed between the print film and the middle layer, wherein the inner layer comprises an ethylene interpolymer having a density from 0.900 to 0.925 g/cc and a melt index (I 2 ) from 0.5 to 5 g/10 min, wherein I 2 is measured according to ASTM D1238 at 190°C and 2.16 kg load; and at least one of the inner layer, the middle layer, and the outer layer comprise a first composition comprising at least one ethylene based polymer, wherein the first composition comprises a Molecular Weighted Comonomer Distribution Index (MWCDI) value greater than 0.9, and a melt index ratio (I 10 /I 2 ) that meets the following equation: I 10 /I 2 ≥ 7.0 - 1.2 x log (I 2 ). a print film comprising ethylene-based polymer; a sealant film laminated to the print film, the sealant film comprising at least 3 layers and having an overall thickness from 15 to 30 μm, where the sealant film comprises a middle layer, an outer layer, and an inner layer disposed between the print film and the middle layer, wherein the inner layer comprises an ethylene interpolymer having a density from 0.900 to 0.925 g/cc and a melt index (I 2 ) from 0.5 to 5 g/10 min, wherein I 2 is measured according to ASTM D1238 at 190°C and 2.16 kg load; and at least one of the inner layer, the middle layer, and the outer layer comprise a first composition comprising at least one ethylene based polymer, wherein the first composition comprises a Molecular Weighted Comonomer Distribution Index (MWCDI) value greater than 0.9, and a melt index ratio (I 10 /I 2 ) that meets the following equation: I 10 /I 2 ≥ 7.0 - 1.2 x log (I 2 ). the inner layer comprises an ethylene interpolymer having a density from 0.900 to 0.925 g/cc and a melt index (I 2 ) from 0.5 to 5 g/10 min, wherein I 2 is measured according to ASTM D1238 at 190°C and 2.16 kg load; and at least one of the inner layer, the middle layer, and the outer layer comprise a first composition comprising at least one ethylene based polymer, wherein the first composition comprises a Molecular Weighted Comonomer Distribution Index (MWCDI) value greater than 0.9, and a melt index ratio (I 10 /I 2 ) that meets the following equation: I 10 /I 2 ≥ 7.0 - 1.2 x log (I 2 ).
Method for estimating the movement of an object moving in an ambient magnetic field, the method being characterised in that it comprises the steps of: (a) Acquiring by magnetic measurement means integral with said object at least one component: ∘ of the magnetic field and/or ∘ of at least one i-th derivative of the magnetic field, with n + 1 ≥ i ≥ 1 and n ≥ 1, at the magnetic measurement means ; characterised in that it comprises a step of: (b) Estimating by the data processing means at least one component of the movement of said object using the equation ∇ n ⋅ B = ƒ n (Ω).∇ n B + g n (∇ n+1 B ). V , where ∇ n B is an n-th derivative of the magnetic field, Ω the instantaneous angular velocity, V the instantaneous linear velocity, and f n and g n predetermined functions. (a) Acquiring by magnetic measurement means integral with said object at least one component: ∘ of the magnetic field and/or ∘ of at least one i-th derivative of the magnetic field, with n + 1 ≥ i ≥ 1 and n ≥ 1, at the magnetic measurement means ; ∘ of the magnetic field and/or ∘ of at least one i-th derivative of the magnetic field, with n + 1 ≥ i ≥ 1 and n ≥ 1,
A vaccine composition comprising: (i) a subunit inactivated influenza virus selected from the group consisting of influenza A, influenza B, influenza C, and combinations thereof; and (ii) a blend of excipients comprising sucrose and arginine, wherein the composition is in a dry solid form; wherein the blend of excipients is present in the composition in a total amount from 1% to 90% by weight; and wherein the excipients of the blend are present in the composition at a ratio from 1:15 to 15:1. (i) a subunit inactivated influenza virus selected from the group consisting of influenza A, influenza B, influenza C, and combinations thereof; and (ii) a blend of excipients comprising sucrose and arginine, wherein the composition is in a dry solid form;
Ferritic stainless steel having enhanced high temperature strength and good resistance to high cycle fatigue, creep and oxidation for use in high temperature service, for components such as automotive exhaust manifolds, said steel consisting of in weight % less than 0,03 % carbon, 0,05 - 2 % silicon, 0,5 - 2 % manganese, more than 17 % - 20 % chromium, 0,7 - 2 % molybdenum, less than 3 weight % tungsten, wherein the Mo + W content is limited to less than or equal to 3 weight %, less than 0,2 % titanium, 0,3 - 1 % niobium, 1 - 1.8 % copper, less than 0,03% nitrogen, 0,001 - 0,005 % boron, 0,005 % or less sulphur, less than 0,05 % phosphorus, less than 0,01 % oxygen, optionally less than 0,2 weight % aluminum, less than 0,5 weight % vanadium, less than 0,5 weight % zirconium, less than 1 weight % of cobalt, less than 1 weight % of nickel, up to 0,003 % calcium and REM less than 0,01 weight %, the rest of the chemical composition being iron and inevitable impurities occurring in stainless steels, and the proof strength R p0,2 is 450 - 550 MPa, and in that the pitting potential (E pt ) in 1 M sodium chloride (NaCl) at the temperature of 25 °C is 300 - 450 mV SCE and that the transpassive potential (E tr ) in 0.5 % sulphuric acid (H 2 SO 4 ) at the temperature of 30 °C is 900 - 1000 mV SCE , wherein the pitting potential and the transpassive potential are determined/evaluated as defined in the description.
A plugged honeycomb structure comprising: a honeycomb structure body having a plurality of pillar-shaped honeycomb segments each having porous partition walls defining a plurality of cells which become through channels for a fluid and extend from a first end face to a second end face , and a bonding layer to bond the plurality of honeycomb segments to one another so that side surfaces of the honeycomb segments face one another; and plugging portions disposed in open ends of the predetermined cells in the first end face and open ends of the residual cells in the second end face of the honeycomb structure body, wherein the honeycomb structure body has, as the plurality of honeycomb segments, outer segments disposed on a circumferential side of the honeycomb structure body in a cross section perpendicular to an extending direction of the cells and inner segments disposed on an inner side than the outer segments in the cross section, characterized in that the material constituting the outer segments has a smaller heat capacity per unit volume than the material constituting the inner segments , and a porous body constituting the outer segment has a larger thermal expansion coefficient than a porous body constituting the inner segment . a honeycomb structure body having a plurality of pillar-shaped honeycomb segments each having porous partition walls defining a plurality of cells which become through channels for a fluid and extend from a first end face to a second end face , and a bonding layer to bond the plurality of honeycomb segments to one another so that side surfaces of the honeycomb segments face one another; and plugging portions disposed in open ends of the predetermined cells in the first end face and open ends of the residual cells in the second end face of the honeycomb structure body, wherein the honeycomb structure body has, as the plurality of honeycomb segments, outer segments disposed on a circumferential side of the honeycomb structure body in a cross section perpendicular to an extending direction of the cells and inner segments disposed on an inner side than the outer segments in the cross section, characterized in that the material constituting the outer segments has a smaller heat capacity per unit volume than the material constituting the inner segments , and a porous body constituting the outer segment has a larger thermal expansion coefficient than a porous body constituting the inner segment .
Cover for closing an opening which is formed in a wall , in particular of a bodywork element or covering element of a motor vehicle, the cover having at least one latching element which protrudes from a rear side of the cover and is provided for, in the closed position, engaging with a latching contour fixed in the wall and associated with the latching element, the latching element having a base and a latching lug , the latching lug defining a latching surface which rests, in the closed position, at the latching contour , a torsion spring element being provided, which is formed toward one side of the base and is connected to the base and/or the latching lug , the torsion spring element being arranged to exert, in the closed position, a spring force which tightens the latching lug against the latching contour , the torsion spring element being in the form of a longitudinal bar which protrudes from the rear side of the cover and extends, from one side of the base , in a direction substantially parallel to a longitudinal direction of the base , and in that, furthermore, at least one transverse bar being provided, protruding from the rear side of the cover and extending from the longitudinal bar in a direction transverse to the longitudinal bar , the base , the longitudinal bar and said at least one transverse bar being formed in one piece, the longitudinal bar forming a torsion spring which, upon insertion and removal of the cover , can resiliently and rotatably move on the side of the base together with same, while the other end of the longitudinal bar is fixed and immobilized by the transverse bar , characterized in that said at least one transverse bar comprises a transverse bar which is formed at one side of the longitudinal bar and is formed in a region between the end facing the base and the end of the longitudinal bar opposite the base .
A method for controlling a three-level brake chopper comprising: apositivedirect current pole (dc+), a negative direct current pole (dc-) and a neutral direct current pole (NP), wherein the positive direct current pole (dc+) and the neutral direct current pole (NP) are connected by afirst capacitance (C1) and wherein the negative direct current pole (dc-) and the neutral direct current pole (NP) are connected by a second capacitance (C2); a first controllable semiconductor switch (T1) connected between the positive direct current pole (dc+) and a first connection point (P1); a second controllable semiconductor switch (T2) connected between the first connection point (P1) and the neutral direct current pole (NP); a third controllable semiconductor switch (T3) connected between the neutral direct current pole(NP) and a second connection point (P2); a fourth controllable semiconductor switch (T4) connected between the second connection point (P2) and the negative direct current pole (dc-); and resistance means (Rbrk; Rbrk1, Rbrk2) connected between the first connection point (P1) and the second connection point (P2), the method comprising: in response to detecting a fault in the resistance means (Rbrk; Rbrk1, Rbrk2), controlling the second controllable semiconductor switch (T2) and the third controllable semiconductor switch (T3) into a conducting state. apositivedirect current pole (dc+), a negative direct current pole (dc-) and a neutral direct current pole (NP), wherein the positive direct current pole (dc+) and the neutral direct current pole (NP) are connected by afirst capacitance (C1) and wherein the negative direct current pole (dc-) and the neutral direct current pole (NP) are connected by a second capacitance (C2); a first controllable semiconductor switch (T1) connected between the positive direct current pole (dc+) and a first connection point (P1); a second controllable semiconductor switch (T2) connected between the first connection point (P1) and the neutral direct current pole (NP); a third controllable semiconductor switch (T3) connected between the neutral direct current pole(NP) and a second connection point (P2); a fourth controllable semiconductor switch (T4) connected between the second connection point (P2) and the negative direct current pole (dc-); and resistance means (Rbrk; Rbrk1, Rbrk2) connected between the first connection point (P1) and the second connection point (P2), the method comprising: in response to detecting a fault in the resistance means (Rbrk; Rbrk1, Rbrk2), controlling the second controllable semiconductor switch (T2) and the third controllable semiconductor switch (T3) into a conducting state.
A computer-implemented method for creating cryptographically secure digital assets, comprising: (a) receiving, over a ticket delivery or management network, ticket information regarding an event ticket, including a ticket identifier and an event identifier, from a ticket issuing system; (b) creating a digital ticket for the event ticket based on the ticket information, wherein the digital ticket maintains a state that is indicative of ownership and/or transfer status of the event ticket, and wherein the digital ticket encodes a set of policies governing one or more ticket transactions of the event ticket, wherein the set of policies enforces spatial and temporal requirements with respect to the event ticket, and wherein enforcement of the spatial requirements includes obtaining and confirming global positioning system coordinates of the location of the one or more ticket transactions; (c) deploying, over the ticket delivery or management network, the digital ticket to a blockchain system that implements cryptographic contract protocols, such that the one or more ticket transactions are supported by the implementation; and (d) storing, in a database, a reference to the deployed digital ticket on the blockchain system. (a) receiving, over a ticket delivery or management network, ticket information regarding an event ticket, including a ticket identifier and an event identifier, from a ticket issuing system; (b) creating a digital ticket for the event ticket based on the ticket information, wherein the digital ticket maintains a state that is indicative of ownership and/or transfer status of the event ticket, and wherein the digital ticket encodes a set of policies governing one or more ticket transactions of the event ticket, wherein the set of policies enforces spatial and temporal requirements with respect to the event ticket, and wherein enforcement of the spatial requirements includes obtaining and confirming global positioning system coordinates of the location of the one or more ticket transactions; (c) deploying, over the ticket delivery or management network, the digital ticket to a blockchain system that implements cryptographic contract protocols, such that the one or more ticket transactions are supported by the implementation; and (d) storing, in a database, a reference to the deployed digital ticket on the blockchain system.
A method for the automatically activatable secure connection of a climbing bracket to a hook on an anchoring device embedded in a substructure , having the following steps: a. bringing the climbing bracket up to the substructure , b. inserting the hook into the anchoring device , c. fitting the hook and lowering the climbing bracket in the anchoring device , d. activating a securing element by lowering the hook in the climbing bracket and e. locking the hook and the securing element in the anchoring device and adjusting the secure connection with the anchoring device, characterized in that the securing element is substantially formed to have two arms and is pivoted upwards about an axis on the hook when the securing element is activated by lowering the hook such that a first arm of the securing element enters a cross-sectional widening of the anchoring device located above an insertion opening of the anchoring device for the hook , and at the same time a second arm (19") of the securing element is locked onto a latching and release device on the climbing bracket such that the hook together with the climbing bracket can no longer be released from the anchoring device and the climbing bracket is prevented from being pulled out of the anchoring device , because the vertical extension of the hook and the securing element is greater than the height of the insertion opening in the anchoring device . a. bringing the climbing bracket up to the substructure , b. inserting the hook into the anchoring device , c. fitting the hook and lowering the climbing bracket in the anchoring device , d. activating a securing element by lowering the hook in the climbing bracket and e. locking the hook and the securing element in the anchoring device and adjusting the secure connection with the anchoring device,