mhurhangee/patent-ind-claim-en huggingface dataset:
Device for fixing a door or window handle to a window sash , a door leaf or the like, comprising - a retaining element secured to a handle neck of the door or window handle , - an adapter received in a receptacle opening in a front side of the window sash , door leaf or the like, in which the retaining element can be secured, characterized in that - the adapter is non-rotatably fixable to a fixing plate which is securable to a bolt element , which is received laterally in a recess of a profile of the window sash , door leaf or the like, in order to lock the window sash , door leaf or the like in a window or door frame. - a retaining element secured to a handle neck of the door or window handle , - an adapter received in a receptacle opening in a front side of the window sash , door leaf or the like, in which the retaining element can be secured, characterized in that - the adapter is non-rotatably fixable to a fixing plate which is securable to a bolt element , which is received laterally in a recess of a profile of the window sash , door leaf or the like, in order to lock the window sash , door leaf or the like in a window or door frame.
A carrier for a combing machine, having a circular comb with a length (L) and a circular comb axis , wherein the carrier has a clothing support surface and at least one support surface situated opposite from the clothing support surface , and the clothing support surface and the support surface are situated in a concentric circular shape about the circular comb axis , in a cross section viewed perpendicular to the length (L), characterized in that the support surface is formed on a central profile of the carrier , and the clothing support surface is connected to the central profile , and at least one first spring rib pair for supporting the carrier on a circular comb shaft or on a support body is situated on the central profile , wherein the spring ribs of the first spring rib pair each have a support , facing the circular comb axis , at an end facing away from the central profile , such that the spring ribs can be deflected accordingly when the carrier is mounted on the circular comb shaft or on a support body .
A method for forming a device comprising: providing a substrate prepared with a transistor region and a sensor region ; processing the substrate which includes forming a lower sensor cavity in the substrate , the lower sensor cavity having a bottom surface disposed below a top surface of the substrate , filling the lower sensor cavity with a sacrificial material, forming a dielectric membrane in the sensor region , the dielectric membrane covers the sacrificial material in the lower sensor cavity , forming a transistor in the transistor region , and forming a micro-electrical mechanical system, MEMS, component on the dielectric membrane in the sensor region ; and forming a back-end-of-line, BEOL, dielectric disposed on the substrate having a plurality of interlayer dielectric, ILD layers with metal and via levels , the metal levels include metal lines and the via levels include via contacts for interconnecting the components of the device , and wherein the metal lines in the metal levels are configured to define a stepped profile of an upper sensor cavity over the lower sensor cavity , and wherein metal lines of a first metal level of the BEOL dielectric are configured to define a geometry of the MEMS component. providing a substrate prepared with a transistor region and a sensor region ; processing the substrate which includes forming a lower sensor cavity in the substrate , the lower sensor cavity having a bottom surface disposed below a top surface of the substrate , filling the lower sensor cavity with a sacrificial material, forming a dielectric membrane in the sensor region , the dielectric membrane covers the sacrificial material in the lower sensor cavity , forming a transistor in the transistor region , and forming a micro-electrical mechanical system, MEMS, component on the dielectric membrane in the sensor region ; and forming a lower sensor cavity in the substrate , the lower sensor cavity having a bottom surface disposed below a top surface of the substrate , filling the lower sensor cavity with a sacrificial material, forming a dielectric membrane in the sensor region , the dielectric membrane covers the sacrificial material in the lower sensor cavity , forming a transistor in the transistor region , and forming a micro-electrical mechanical system, MEMS, component on the dielectric membrane in the sensor region ; and forming a back-end-of-line, BEOL, dielectric disposed on the substrate having a plurality of interlayer dielectric, ILD layers with metal and via levels , the metal levels include metal lines and the via levels include via contacts for interconnecting the components of the device , and wherein the metal lines in the metal levels are configured to define a stepped profile of an upper sensor cavity over the lower sensor cavity , and wherein metal lines of a first metal level of the BEOL dielectric are configured to define a geometry of the MEMS component.
An article of footwear , comprising: an upper and a sole structure , the upper defining an interior void configured to receive a foot of a user of the article of footwear ; a control device , the control device comprising a panel ; the upper comprising a first surface and a second surface, wherein the first surface comprises a separate portion of material from the second surface, wherein a compartment is formed between a portion of the first surface and a portion of the second surface; the first surface comprising one or more apertures , the one or more apertures including a first aperture ; the panel including one or more buttons, the one or more buttons including a first button ; wherein the panel is disposed within the compartment ; wherein the first button is aligned with and exposed through the first aperture ; wherein the compartment includes a slot configured to receive at least a first edge of the panel , characterized in that the slot extends between the interior void and the compartment so that the panel can be moved into the compartment from the interior void through the slot ; and in that the panel further includes a hook portion , wherein the hook portion is configured to help secure the panel within the compartment . an upper and a sole structure , the upper defining an interior void configured to receive a foot of a user of the article of footwear ; a control device , the control device comprising a panel ; the upper comprising a first surface and a second surface, wherein the first surface comprises a separate portion of material from the second surface, wherein a compartment is formed between a portion of the first surface and a portion of the second surface; the first surface comprising one or more apertures , the one or more apertures including a first aperture ; the panel including one or more buttons, the one or more buttons including a first button ; wherein the panel is disposed within the compartment ; wherein the first button is aligned with and exposed through the first aperture ; wherein the compartment includes a slot configured to receive at least a first edge of the panel , characterized in that the slot extends between the interior void and the compartment so that the panel can be moved into the compartment from the interior void through the slot ; and in that the panel further includes a hook portion , wherein the hook portion is configured to help secure the panel within the compartment .
A composition comprising: (a) a retinoic acid precursor, meaning a component that, when oxidized, can convert to retinoic acid, wherein the retinoic acid precursor is retinyl propionate, hydroxyanasatil retinoate or a mixture thereof; (b) a skin benefit agent comprising resorcinol and/or a derivative thereof, wherein 'derivative' means at least one H on the ring structure and/or on a hydroxy group of the resorcinol replaced with an alkyl group, wherein the skin benefit agent comprising resorcinol and/or derivative thereof is 4-ethyl resorcinol or 4-hexyl resorcinol; and (c) a cosmetically acceptable carrier which is caprylic capric triglyceride; wherein the retinoic acid precursor and the skin benefit agent comprising resorcinol and/or a derivative thereof are present at a weight ratio of from 0.25 to 1 to 1 to 0.25. (a) a retinoic acid precursor, meaning a component that, when oxidized, can convert to retinoic acid, wherein the retinoic acid precursor is retinyl propionate, hydroxyanasatil retinoate or a mixture thereof; (b) a skin benefit agent comprising resorcinol and/or a derivative thereof, wherein 'derivative' means at least one H on the ring structure and/or on a hydroxy group of the resorcinol replaced with an alkyl group, wherein the skin benefit agent comprising resorcinol and/or derivative thereof is 4-ethyl resorcinol or 4-hexyl resorcinol; and (c) a cosmetically acceptable carrier which is caprylic capric triglyceride;
A wall assembly adjacent a combustion chamber within a gas turbine engine , comprising: a support shell ; a liner panel mounted to the support shell ; a multiple of dilution passages penetrating through the support shell and the liner panel along an axis (D); and an annular grommet 190) defining at least one of the multiple of dilution passages along the axis (D), the annular grommet mounted between the support shell and the liner panel and including a transverse structure with a wall that defines an outer periphery an inner periphery and a seal face therebetween, the transverse structure including at least one effusion passage 108D) that includes an inlet 200) in the outer periphery of the transverse structure . and an outlet adjacent a hot side of the annular grommet , said hot side generally parallel to the hot side of the respective liner panel ; wherein the at least one effusion passage does not penetrate through the inner periphery , characterised in that the at least one effusion passage is non-linear. a support shell ; a liner panel mounted to the support shell ; a multiple of dilution passages penetrating through the support shell and the liner panel along an axis (D); and an annular grommet 190) defining at least one of the multiple of dilution passages along the axis (D), the annular grommet mounted between the support shell and the liner panel and including a transverse structure with a wall that defines an outer periphery an inner periphery and a seal face therebetween, the transverse structure including at least one effusion passage 108D) that includes an inlet 200) in the outer periphery of the transverse structure . and an outlet adjacent a hot side of the annular grommet , said hot side generally parallel to the hot side of the respective liner panel ; wherein the at least one effusion passage does not penetrate through the inner periphery , characterised in that the at least one effusion passage is non-linear.
A method comprising: at a network controller that is in communication with a plurality of nodes in a network: generating filter configuration information to track a particular packet flow, the filter configuration information including one or more parameters of the particular packet flow; sending the filter configuration information to the plurality of nodes in order to configure a filter for the particular packet flow at each of the plurality of nodes; receiving , from one or more of the plurality of nodes where a filter match occurs, output indicating that a packet matching the filter configuration information for the filter for the particular packet flow passed through the associated node where the filter match occurred, wherein the output includes information indicating whether the packet matching the filter configuration information was forwarded, whether the packet matching the filter configuration information was dropped by the associated node, and any associated next hop details of the packet at the associated node; analyzing the output received from the one or more of the plurality of nodes where a filter match occurs to determine a path through the network for the particular packet flow; and based on the analyzing, determining a specific node at which the packet is dropped and a cause of the packet drop for the particular packet flow. generating filter configuration information to track a particular packet flow, the filter configuration information including one or more parameters of the particular packet flow; sending the filter configuration information to the plurality of nodes in order to configure a filter for the particular packet flow at each of the plurality of nodes; receiving , from one or more of the plurality of nodes where a filter match occurs, output indicating that a packet matching the filter configuration information for the filter for the particular packet flow passed through the associated node where the filter match occurred, wherein the output includes information indicating whether the packet matching the filter configuration information was forwarded, whether the packet matching the filter configuration information was dropped by the associated node, and any associated next hop details of the packet at the associated node; analyzing the output received from the one or more of the plurality of nodes where a filter match occurs to determine a path through the network for the particular packet flow; and based on the analyzing, determining a specific node at which the packet is dropped and a cause of the packet drop for the particular packet flow.
Method for managing a parity-check node calculation unit of a non-binary error-correcting code decoder having a representation as a bipartite graph comprising at least one parity-check node, the parity-check node being configured to receive first (U) and second (V) input messages, and to produce an output message (E), elements of the input and output messages of the parity-check node comprising a symbol and a measure of reliability associated with the symbol, the first and second input messages containing lists U(i) and V(j) of length n m of elements ordered by their measure of reliability, said method comprising: - initializing a plurality of n bub FIFO type memories with elements calculated, according to a calculation operation φ ( U ( i ), V ( j )), from combinations of elements of the first and second input messages, said calculation operation φ being such that if a≥b and c≥d, then φ ( a,c )≥ φ (b,d); and - iteratively determining values of the output message, where an iteration of order m, m being an integer greater than or equal to zero, comprises: • selecting from among the output elements from the FIFO type memories an element Ss(m) having maximum reliability; • generating an element of the output message (E) from the selected element Ss(m); • updating the output of the FIFO type memory from which the selected element Ss(m) originated. - initializing a plurality of n bub FIFO type memories with elements calculated, according to a calculation operation φ ( U ( i ), V ( j )), from combinations of elements of the first and second input messages, said calculation operation φ being such that if a≥b and c≥d, then φ ( a,c )≥ φ (b,d); and - iteratively determining values of the output message, where an iteration of order m, m being an integer greater than or equal to zero, comprises: • selecting from among the output elements from the FIFO type memories an element Ss(m) having maximum reliability; • generating an element of the output message (E) from the selected element Ss(m); • updating the output of the FIFO type memory from which the selected element Ss(m) originated. • selecting from among the output elements from the FIFO type memories an element Ss(m) having maximum reliability; • generating an element of the output message (E) from the selected element Ss(m); • updating the output of the FIFO type memory from which the selected element Ss(m) originated.
A solenoid valve for a fuel injection system , having - a valve region with a closing element and a valve seat which interact in order to close the solenoid valve ; and - an actuator region with a control pin for moving the closing element along a movement axis into an open or closed position, wherein the actuator region has a stationary pole piece with a pole piece bore which is arranged in the pole piece , and a solenoid plunger which is movable relative to the pole piece along the movement axis , said solenoid plunger being arranged with a pole piece end in the pole piece bore in a contactless manner with respect to the pole piece , wherein the solenoid plunger forms the control pin and the valve region has a valve seat plate which forms the valve seat , and wherein the solenoid plunger is configured as a cylindrical pin, characterized in that the solenoid plunger penetrates the valve seat plate with a valve seat plate end in a contactless manner. - a valve region with a closing element and a valve seat which interact in order to close the solenoid valve ; and - an actuator region with a control pin for moving the closing element along a movement axis into an open or closed position,
A method of producing a fluoropropene of formula CF 3 CH=CHF, comprising: a) contacting a mixture of 1,1,1,3,3-pentafluoropropane and Z-1,3,3,3-tetrafluoropropene in the gas phase with a catalyst comprising at least one catalyst selected from the group consisting of fluorinated Cr 2 O 3 or Cr/Ni on fluorided alumina to form a mixture comprising Z-1,3,3,3-tetrafluoropropene, E-1,3,3,3-tetrafluoropropene, hydrogen fluoride, and optionally unreacted 1,1,1,3,3-pentafluoropropane, b) separating the E-1,3,3,3-tetrafluoropropene from the Z-isomer and any unreacted 1,1,1,3,3-pentafluoropropane, if present, and c) recovering said E-1,3,3,3-tetrafluoropropene. a) contacting a mixture of 1,1,1,3,3-pentafluoropropane and Z-1,3,3,3-tetrafluoropropene in the gas phase with a catalyst comprising at least one catalyst selected from the group consisting of fluorinated Cr 2 O 3 or Cr/Ni on fluorided alumina to form a mixture comprising Z-1,3,3,3-tetrafluoropropene, E-1,3,3,3-tetrafluoropropene, hydrogen fluoride, and optionally unreacted 1,1,1,3,3-pentafluoropropane, b) separating the E-1,3,3,3-tetrafluoropropene from the Z-isomer and any unreacted 1,1,1,3,3-pentafluoropropane, if present, and c) recovering said E-1,3,3,3-tetrafluoropropene.
An ice maker comprising: an upper tray including an upper tray body defining an upper chamber , the upper chamber being a portion of an ice chamber for generating ice; and a lower tray rotatable relative to the upper tray around a rotational center (C2), the lower tray including a lower tray body defining a lower chamber , the lower chamber being another portion of the ice chamber , wherein each of the upper tray and the lower tray is formed of a flexible material or a silicone material, wherein in a closed state of the ice maker a top surface of the lower tray body contacts a bottom surface of the upper tray body , wherein the rotational center (C2) is disposed outside of the ice chamber , wherein the bottom surface of the upper tray body includes a first surface (151a1) and a second surface (151a2) disposed farther from the rotational center (C2) than the first surface (151a1), characterised in that in an open state of the ice chamber the second surface (151a2) of the upper tray body is lower than the first surface (151a1) of the upper tray body . an upper tray including an upper tray body defining an upper chamber , the upper chamber being a portion of an ice chamber for generating ice; and a lower tray rotatable relative to the upper tray around a rotational center (C2), the lower tray including a lower tray body defining a lower chamber , the lower chamber being another portion of the ice chamber , wherein each of the upper tray and the lower tray is formed of a flexible material or a silicone material, wherein in a closed state of the ice maker a top surface of the lower tray body contacts a bottom surface of the upper tray body , wherein the rotational center (C2) is disposed outside of the ice chamber , wherein the bottom surface of the upper tray body includes a first surface (151a1) and a second surface (151a2) disposed farther from the rotational center (C2) than the first surface (151a1), characterised in that in an open state of the ice chamber the second surface (151a2) of the upper tray body is lower than the first surface (151a1) of the upper tray body .
An assay method for determining drug receptor occupancy in a subject dosed with a drug of interest that covalently binds to the receptor of interest, said method comprising the steps of: a. collecting a blood sample from a subject treated with the drug of interest, b. adding a lysis solution comprising a quencher that irreversibly binds at the same receptor site as the drug of interest to the blood sample, c. isolating drug bound and quencher bound receptor by immunocapture, d. digesting the isolated drug bound and quencher bound receptor to generate drug bound and quencher bound surrogate peptides, e. measuring the amount of surrogate peptides using LC-MS/MS and determining the amount of receptor bound to drug by comparing the amount of drug bound surrogate peptide to the total amount of drug bound and quencher bound surrogate peptides. a. collecting a blood sample from a subject treated with the drug of interest, b. adding a lysis solution comprising a quencher that irreversibly binds at the same receptor site as the drug of interest to the blood sample, c. isolating drug bound and quencher bound receptor by immunocapture, d. digesting the isolated drug bound and quencher bound receptor to generate drug bound and quencher bound surrogate peptides, e. measuring the amount of surrogate peptides using LC-MS/MS and determining the amount of receptor bound to drug by comparing the amount of drug bound surrogate peptide to the total amount of drug bound and quencher bound surrogate peptides.
A method for extending a physical downlink control channel, PDCCH, region performed by a user equipment, UE, for monitoring the PDCCH in order to enable communication over a plurality of cells in a communication system, wherein the UE receives downlink control information, DCI, from a base station through a DCI format received on the PDCCH, and wherein the PDCCH is transmitted through control channel elements, CCEs, in a UE-common search space, UE-CSS, and in a UE-dedicated search space, UE-DSS, the method comprising: monitoring the PDCCH in the UE-CSS, wherein the UE-CSS is common to the plurality of cells; acquiring a cell identity, ID, for a cell informed by a radio resource control, RRC, signaling, wherein the cell ID is UE-specific; monitoring the PDCCH in the UE-DSS for the cell, wherein the UE-DSS is one among a plurality of UE-DSSs, and each of the plurality of UE-DSSs corresponds to each of the plurality of cells; and receiving a physical downlink physical shared channel, PDSCH, on the cell corresponding to the received DCI, the cell being one among the plurality of cells, wherein each of the plurality of UE-DSSs depends on each cell ID of the plurality of cells. monitoring the PDCCH in the UE-CSS, wherein the UE-CSS is common to the plurality of cells; acquiring a cell identity, ID, for a cell informed by a radio resource control, RRC, signaling, wherein the cell ID is UE-specific; monitoring the PDCCH in the UE-DSS for the cell, wherein the UE-DSS is one among a plurality of UE-DSSs, and each of the plurality of UE-DSSs corresponds to each of the plurality of cells; and receiving a physical downlink physical shared channel, PDSCH, on the cell corresponding to the received DCI, the cell being one among the plurality of cells, wherein each of the plurality of UE-DSSs depends on each cell ID of the plurality of cells.