mhurhangee/patent-ind-claim-en huggingface dataset:
A floating gastroretentive dosage form comprising: a) a matrix core that is a sustained release swellable matrix core comprising an active agent, a superdisintegrant, a swellable water-soluble polymer, an acid, and a gas-generating agent; b) a water-insoluble permeable elastic membrane surrounding the matrix core; and c) an orifice running through the membrane and matrix core, wherein the gas-generating agent is calcium carbonate and/or sodium bicarbonate, wherein the water-insoluble permeable elastic membrane surrounding the matrix core comprises a plasticizer and a copolymer of ethyl acrylate, methyl methacrylate, and methacrylic acid ester with quaternary ammonium groups, and wherein the dosage form provides sustained release of the active agent for a period of at least 8 hours. a) a matrix core that is a sustained release swellable matrix core comprising an active agent, a superdisintegrant, a swellable water-soluble polymer, an acid, and a gas-generating agent; b) a water-insoluble permeable elastic membrane surrounding the matrix core; and c) an orifice running through the membrane and matrix core, wherein the gas-generating agent is calcium carbonate and/or sodium bicarbonate, wherein the water-insoluble permeable elastic membrane surrounding the matrix core comprises a plasticizer and a copolymer of ethyl acrylate, methyl methacrylate, and methacrylic acid ester with quaternary ammonium groups, and wherein the dosage form provides sustained release of the active agent for a period of at least 8 hours.
A heater assembly configured to vaporize a liquid, the heater assembly comprising: a substrate plate ; a heating element supported on the substrate plate , the heating element comprising a layer of electrically conducting material; and a plurality of channels formed by the electrically conducting material, each of the plurality of channels being configured to operate in parallel, characterized in that each channel has an inlet end and an outlet end, the inlet end being configured to receive the liquid and the outlet end being configured to discharge vapor, wherein the substrate plate and the heating element form a multi-layer configuration. a substrate plate ; a heating element supported on the substrate plate , the heating element comprising a layer of electrically conducting material; and a plurality of channels formed by the electrically conducting material, each of the plurality of channels being configured to operate in parallel, characterized in that each channel has an inlet end and an outlet end, the inlet end being configured to receive the liquid and the outlet end being configured to discharge vapor, wherein the substrate plate and the heating element form a multi-layer configuration.
A branch connector for electrically connecting a plurality of wires with each other, the branch connector comprising: a plurality of adjacent cavities separated by a wall for receiving the electrical wires through open ends (E1, E2) of the branch connector , wherein the cavities extend from one open end (E1) to another open end (E2); a plurality of holes extending to the plurality of adjacent cavities ; and a plurality of pressing elements for extending through the plurality of holes and for pressing the electrical wires in the plurality of adjacent cavities against an electrically conducting body of the branch connector , characterized in that the branch connector further comprises a gap in the wall extending from the one open end (E1) to another open end (E2), wherein the gap is configured to open the wall such that the plurality of adjacent cavities have a common inner surface . a plurality of adjacent cavities separated by a wall for receiving the electrical wires through open ends (E1, E2) of the branch connector , wherein the cavities extend from one open end (E1) to another open end (E2); a plurality of holes extending to the plurality of adjacent cavities ; and a plurality of pressing elements for extending through the plurality of holes and for pressing the electrical wires in the plurality of adjacent cavities against an electrically conducting body of the branch connector , characterized in that the branch connector further comprises a gap in the wall extending from the one open end (E1) to another open end (E2), wherein the gap is configured to open the wall such that the plurality of adjacent cavities have a common inner surface .
A motion sensing system , comprising: at least two sense electrodes , wherein a sense drive signal (SD1, SD2) having a sense drive frequency (ΩDRV) is applied to each of the sense electrodes ; a first auxiliary electrode , wherein a first auxiliary drive signal (AD1) having an auxiliary drive frequency (ΩAUX) is applied to the first auxiliary electrode ; a second auxiliary electrode , wherein a second auxiliary drive signal (AD2) having the auxiliary drive frequency (ΩAUX) is applied to the second auxiliary electrode ; a first proof mass , wherein the first proof mass is located adjacent to one or more of the at least two sense electrodes and adjacent to the first auxiliary electrode ; a second proof mass , wherein the second proof mass is located adjacent to one or more of the at least two sense electrodes and adjacent to the second auxiliary electrode ; and processing circuitry coupled to each of the first proof mass and the second proof mass to provide a received signal from the first proof mass and the second proof mass , wherein the processing circuitry determines motion parameter based on a portion of the received signal that is associated with the sense drive frequency (ΩDRV) and that changes based on a motion of capacitively coupled proof mass, and the processing circuitry identifies a failure based on a portion of the received signal that is associated with the auxiliary drive frequency (ΩAUX) and that changes based on a change in electrical characteristics created by the failure. at least two sense electrodes , wherein a sense drive signal (SD1, SD2) having a sense drive frequency (ΩDRV) is applied to each of the sense electrodes ; a first auxiliary electrode , wherein a first auxiliary drive signal (AD1) having an auxiliary drive frequency (ΩAUX) is applied to the first auxiliary electrode ; a second auxiliary electrode , wherein a second auxiliary drive signal (AD2) having the auxiliary drive frequency (ΩAUX) is applied to the second auxiliary electrode ; a first proof mass , wherein the first proof mass is located adjacent to one or more of the at least two sense electrodes and adjacent to the first auxiliary electrode ; a second proof mass , wherein the second proof mass is located adjacent to one or more of the at least two sense electrodes and adjacent to the second auxiliary electrode ; and processing circuitry coupled to each of the first proof mass and the second proof mass to provide a received signal from the first proof mass and the second proof mass , wherein the processing circuitry determines motion parameter based on a portion of the received signal that is associated with the sense drive frequency (ΩDRV) and that changes based on a motion of capacitively coupled proof mass, and the processing circuitry identifies a failure based on a portion of the received signal that is associated with the auxiliary drive frequency (ΩAUX) and that changes based on a change in electrical characteristics created by the failure.
A lining being arranged to extend over a haul truck body for carrying a load, wherein the lining is formed by a plurality of lining elements comprising at least a first type of lining elements, termed load-breaking lining elements , and a second type of lining elements, different from the load-breaking lining elements , said load-breaking lining elements being structured and arranged to restrict, to a higher degree than the second type of lining elements, movement of said load in relation to the lining wherein said plurality of lining elements comprises an elastic material, such as rubber, and characterized in that the load-breaking lining elements , compared to the lining elements of the second type, comprises a softer elastic material arranged to be deformed by the weight of the load in order to restrict movement of the load in relation to the lining . wherein said plurality of lining elements comprises an elastic material, such as rubber, and characterized in that the load-breaking lining elements , compared to the lining elements of the second type, comprises a softer elastic material arranged to be deformed by the weight of the load in order to restrict movement of the load in relation to the lining .
Method for moving a rotor in a planar drive system , wherein the planar drive system has a first stator module , a second stator module and a rotor , wherein the first stator module and the second stator module are arranged in a manner spaced from one another, wherein a gap is formed between the first stator module and the second stator module , wherein a first magnetic field is able to be generated by the first stator module and a second magnetic field is able to be generated by the second stator module , wherein the first magnetic field and/or the second magnetic field keep the rotor in a vertical position in a manner spaced from a surface of the first stator module and/or of the second stator module , wherein the first magnetic field and/or the second magnetic field have a first magnetic field strength in order to keep the rotor in the vertical position , wherein the first magnetic field and/or the second magnetic field are furthermore used to modify a horizontal position of the rotor , wherein the first stator module has a first proximal region adjoining the gap , wherein the first magnetic field has a second magnetic field strength in the first proximal region , wherein the second magnetic field strength is greater than the first magnetic field strength when the rotor is moved over the gap , wherein the first magnetic field has a third magnetic field strength in a first distal region , wherein the first distal region is arranged in a manner spaced from the gap and wherein the third magnetic field strength is smaller than the first magnetic field strength when the rotor is moved over the gap , so as to compensate for a lack of magnetic force on the rotor in the region of the gap .
A fluid supply apparatus , comprising: a supply system for transporting fluid in a housing main body while measuring flow rate of the fluid; a control mechanism for controlling the supply system; a hose introduced from the supply system and having a nozzle at an end thereof; a signal line extending along an outside of the hose , wherein said signal line is detachable and includes a detachable portion (10; 20) as a separable portion, the detachable portion being provided with a locking mechanism (11; 21) which includes a signal line holding member (13; 23), wherein a first convex portion (13A; 23A) for releasing engagement of the locking mechanism (11; 21) is mounted to the signal line holding member (13; 23); and an emergency separation mechanism (12; 22) mounted to release the locking mechanism (11; 21), the emergency separation mechanism (12; 22) including a lock releasing member (14; 24); wherein a second convex portion (14A; 24A) for releasing engagement of the locking mechanism (11; 21) by contacting the first convex portion (13A; 23A) is mounted to the lock releasing member (14; 24). a supply system for transporting fluid in a housing main body while measuring flow rate of the fluid; a control mechanism for controlling the supply system; a hose introduced from the supply system and having a nozzle at an end thereof; a signal line extending along an outside of the hose , wherein said signal line is detachable and includes a detachable portion (10; 20) as a separable portion, the detachable portion being provided with a locking mechanism (11; 21) which includes a signal line holding member (13; 23), wherein a first convex portion (13A; 23A) for releasing engagement of the locking mechanism (11; 21) is mounted to the signal line holding member (13; 23); and an emergency separation mechanism (12; 22) mounted to release the locking mechanism (11; 21), the emergency separation mechanism (12; 22) including a lock releasing member (14; 24); wherein a second convex portion (14A; 24A) for releasing engagement of the locking mechanism (11; 21) by contacting the first convex portion (13A; 23A) is mounted to the lock releasing member (14; 24).
An air mattress , adapted to be selectively inflated or deflated by an air source controlled by a control system , the air mattress comprising: at least one first air cell at a head end of the air mattress ; a second air cell disposed adjacent to the at least one first air cell and comprising a first air chamber , a second air chamber , and a structurally-weakened region , wherein the first air chamber is adjacent to the second air chamber , and the structurally-weakened region is enclosed in the second air cell ; a plurality of third air cells adjacent to the second air cell without directly contacting the at least one first air cell ; and a body-lifting air cell substantially at a lower position of the second air cell and at least one of the third air cells , wherein when the air mattress is in use, the air source inflates the body-lifting air cell to lift the second air cell and the at least one of the third air cells , and a vertical distance between a top of the second air cell and a bottom of the air mattress is a first distance (L1), and a vertical distance between a top of the at least one first air cell and the bottom of the air mattress is a second distance (L2), and the first distance (L1) is greater than the second distance (L2), wherein the structurally-weakened region enclosed in the second air cell has a lower structural strength than that of the any other air cells when the air mattress is in use achieving a cushioning effect of the second air cell against external forces . at least one first air cell at a head end of the air mattress ; a second air cell disposed adjacent to the at least one first air cell and comprising a first air chamber , a second air chamber , and a structurally-weakened region , wherein the first air chamber is adjacent to the second air chamber , and the structurally-weakened region is enclosed in the second air cell ; a plurality of third air cells adjacent to the second air cell without directly contacting the at least one first air cell ; and a body-lifting air cell substantially at a lower position of the second air cell and at least one of the third air cells , wherein when the air mattress is in use, the air source inflates the body-lifting air cell to lift the second air cell and the at least one of the third air cells , and a vertical distance between a top of the second air cell and a bottom of the air mattress is a first distance (L1), and a vertical distance between a top of the at least one first air cell and the bottom of the air mattress is a second distance (L2), and the first distance (L1) is greater than the second distance (L2), wherein the structurally-weakened region enclosed in the second air cell has a lower structural strength than that of the any other air cells when the air mattress is in use achieving a cushioning effect of the second air cell against external forces .
An access control device for controlling an access of a user to an access area , the access control device comprising: a communication interface which is configured to receive a movement profile from a mobile communication device , wherein the movement profile indicates a detected movement of the mobile communication device ; a processor which is configured to compare the movement profile with a predetermined movement profile, to determine a similarity measure between the movement profile and the predetermined movement profile, and to grant the access to the access area if the determined similarity measure exceeds a predetermined threshold value; and a camera which is configured to capture a plurality of images of the mobile communication device in order to obtain a video sequence; wherein the processor is configured to determine a further movement of the mobile communication device on the basis of the video sequence, to derive a further movement profile from the detected further movement of the mobile communication device , wherein the further movement profile indicates the detected further movement of the communication device , to compare the further movement profile with the predetermined movement profile, to determine a further similarity measure between the further movement profile and the predetermined movement profile, and to grant the access to the access area if the determined further similarity measure exceeds the predetermined threshold value. a communication interface which is configured to receive a movement profile from a mobile communication device , wherein the movement profile indicates a detected movement of the mobile communication device ; a processor which is configured to compare the movement profile with a predetermined movement profile, to determine a similarity measure between the movement profile and the predetermined movement profile, and to grant the access to the access area if the determined similarity measure exceeds a predetermined threshold value; and a camera which is configured to capture a plurality of images of the mobile communication device in order to obtain a video sequence; wherein the processor is configured to determine a further movement of the mobile communication device on the basis of the video sequence, to derive a further movement profile from the detected further movement of the mobile communication device , wherein the further movement profile indicates the detected further movement of the communication device , to compare the further movement profile with the predetermined movement profile, to determine a further similarity measure between the further movement profile and the predetermined movement profile, and to grant the access to the access area if the determined further similarity measure exceeds the predetermined threshold value.
A method of sharing information with an external device (1000; 2000) by a medical imaging apparatus , the method comprising: acquiring an ultrasound image of an object; identifying a sharing level of an external device for sharing the ultrasound image; and transmitting ultrasound information about the ultrasound image to the external device according to the sharing level, characterized in that the external device includes a first device and a second device , wherein first device includes an examinee device and the second device includes a medical expert device, wherein the identifying a sharing level of the external device comprises identifying a first sharing level of the first device and identifying a second sharing level of the second device , and wherein the transmitting ultrasound information includes transmitting first ultrasound information corresponding to the first sharing level of the first device to the first device; and transmitting second ultrasound information corresponding to the second sharing level of the second device to the second device, wherein, the second device and the first device may have different sharing levels from each other, and therefore the ultrasound information corresponding to the sharing level of the second device may be different from ultrasound information corresponding to the sharing level of the first device . acquiring an ultrasound image of an object; identifying a sharing level of an external device for sharing the ultrasound image; and transmitting ultrasound information about the ultrasound image to the external device according to the sharing level, characterized in that the external device includes a first device and a second device , wherein first device includes an examinee device and the second device includes a medical expert device, wherein the identifying a sharing level of the external device comprises identifying a first sharing level of the first device and identifying a second sharing level of the second device , and wherein the transmitting ultrasound information includes transmitting first ultrasound information corresponding to the first sharing level of the first device to the first device; and transmitting second ultrasound information corresponding to the second sharing level of the second device to the second device, wherein, the second device and the first device may have different sharing levels from each other, and therefore the ultrasound information corresponding to the sharing level of the second device may be different from ultrasound information corresponding to the sharing level of the first device .
A method for selecting a red-fruited S. lycopersicum plant exhibiting a sympodial index of about 2, comprising: a) providing a sample of genomic DNA from an S. lycopersicum plant producing red-colored fruits; b) detecting in said sample of genomic DNA at least one molecular marker linked to a SP3D gene of the gene family for self pruning genes from S. pennellii, wherein said marker comprises the sequence 5' cctcttcgtt tctcctttcc aatttttaaa aataaaataa aaggatatat aattactaaa gaatataatt, as provided in Figure 7. a) providing a sample of genomic DNA from an S. lycopersicum plant producing red-colored fruits; b) detecting in said sample of genomic DNA at least one molecular marker linked to a SP3D gene of the gene family for self pruning genes from S. pennellii, wherein said marker comprises the sequence 5' cctcttcgtt tctcctttcc aatttttaaa aataaaataa aaggatatat aattactaaa gaatataatt, as provided in Figure 7.
A lubricating oil composition, comprising: a base oil; and 0.1 to 5 wt.% of an alkoxyboroxine compound of the following formula, based on the weight of the lubricating oil composition: wherein each of R 1 , R 2 , and R 3 is independently an alkyl group having 10 to 16 carbon atoms. a base oil; and 0.1 to 5 wt.% of an alkoxyboroxine compound of the following formula, based on the weight of the lubricating oil composition: wherein each of R 1 , R 2 , and R 3 is independently an alkyl group having 10 to 16 carbon atoms.
Method for producing a coating comprising a metallic matrix on a substrate by electrochemical deposition wherein electrically conductive carbon comprising particles are dispersed in a metal ions-containing deposition bath whereby the electrically conductive carbon comprising particles are embedded into the metallic matrix and pores are located in the coating enlarging the surface of the coating characterized in that the pores have the dimensions of macro-pores whereby at least 80 % of the macro-pores have a pore diameter in a range from 3 to 30 μm and that together with the electrically conductive carbon comprising particles also oxide particles are dispersed in the deposition bath, • whereby the oxide particles are incorporated into and fixed in the macro-pores while deposition and • whereby the oxide particles remain partially uncoated by the material of the metallic matrix , wherein at least 90 % of the electrically conductive carbon comprising particles have a size in a range from 3 to 40 μm, and the electrically conductive carbon comprising particles build up an electrically conductive network on which metal ions contained in the deposition bath are further reduced. • whereby the oxide particles are incorporated into and fixed in the macro-pores while deposition and • whereby the oxide particles remain partially uncoated by the material of the metallic matrix ,