mhurhangee/patent-ind-claim-en huggingface dataset:
A drainage apparatus, in particular a trap, comprising an inlet opening , which is connectable to a sanitary device, and a drainage opening , which is connectable to a sewage pipe, as well as a closure section , which is arranged between the inlet opening and the drainage opening , wherein the passage of gas between the inlet opening and the drainage opening can be prevented by filling the closure section with a liquid, further comprising an actuating device and a vent opening , wherein, in a rest position, the actuating device closes the vent opening and, in an activation position, releases the vent opening , and wherein, in the activation position, a gas passage between the drainage opening and the vent opening is allowed, and wherein the actuating device can be brought into the activation position by the liquid flowing through the drainage apparatus, characterized in that the vent opening is arranged in a housing of the drainage apparatus and allows a gas passage between the environment of the drainage apparatus and a connecting tube , which is arranged between the inlet opening and the drainage opening .
A powder composition for laundry, comprising: a. Fabric softening s ilicone; b. cationic polymer; and c. 60 to 85 wt. % zeolite; wherein the silicone composition and cationic polymer are loaded onto the carrier, wherein the carrier is the zeolite and the combined weight of silicone and cationic polymer is 15 to 35 wt. % of the powder composition; wherein the molecular weight of the softening silicone is less than 150 000g/mol. a. Fabric softening s ilicone; b. cationic polymer; and c. 60 to 85 wt. % zeolite; wherein the silicone composition and cationic polymer are loaded onto the carrier, wherein the carrier is the zeolite and the combined weight of silicone and cationic polymer is 15 to 35 wt. % of the powder composition; wherein the molecular weight of the softening silicone is less than 150 000g/mol. wherein the silicone composition and cationic polymer are loaded onto the carrier, wherein the carrier is the zeolite and the combined weight of silicone and cationic polymer is 15 to 35 wt. % of the powder composition; wherein the molecular weight of the softening silicone is less than 150 000g/mol.
A method, implemented by computer means, for providing a set-of-data relative to a wearer of an ophthalmic equipment and/or to at least part of the ophthalmic equipment to a data server, the set-of-data being intended to be used to determine the ophthalmic equipment adapted to the wearer, the method comprising: - a set-of-data receiving step (S10), during which the set-of-data relative to the wearer and/or to at least part of the ophthalmic equipment is received from a first user, the set-of-data comprising a private data segment and a public data segment, the private data segment being protected by a private key providing an access to the data of the private data segment; - a set-of-data storing step (S20), during which the set-of-data is stored on the data server and associated with an identifier; and - an identifier sending step (S30), during which the identifier associated with the stored set-of-data is sent to a second user, characterised in that the data of the private data segment are encrypted with a private encryption key, and wherein the private encryption key and the private key are different. - a set-of-data receiving step (S10), during which the set-of-data relative to the wearer and/or to at least part of the ophthalmic equipment is received from a first user, the set-of-data comprising a private data segment and a public data segment, the private data segment being protected by a private key providing an access to the data of the private data segment; - a set-of-data storing step (S20), during which the set-of-data is stored on the data server and associated with an identifier; and - an identifier sending step (S30), during which the identifier associated with the stored set-of-data is sent to a second user, the data of the private data segment are encrypted with a private encryption key, and wherein the private encryption key and the private key are different.
A method of wireless communication by a base station, comprising: processing a first group of synchronization signals; processing a second group of synchronization signals; performing a first transmission by transmitting the processed first group of the synchronization signals in a first synchronization subframe; and performing a second transmission by transmitting the processed second group of the synchronization signals in a second synchronization subframe; wherein the first group of synchronization signals comprises different synchronization signals than the second group of synchronization signals; and wherein the first group of synchronization signals are processed by performing time-division multiplexing, TDM, of the first group of synchronization signals, and the second group of synchronization signals are processed by performing TDM of the second group of synchronization signals, wherein the first group of the synchronization signals includes a physical broadcast channel, PBCH, signal, and the second group of the synchronization signals includes a beam reference signal, BRS. processing a first group of synchronization signals; processing a second group of synchronization signals; performing a first transmission by transmitting the processed first group of the synchronization signals in a first synchronization subframe; and performing a second transmission by transmitting the processed second group of the synchronization signals in a second synchronization subframe; wherein the first group of synchronization signals comprises different synchronization signals than the second group of synchronization signals; and wherein the first group of synchronization signals are processed by performing time-division multiplexing, TDM, of the first group of synchronization signals, and the second group of synchronization signals are processed by performing TDM of the second group of synchronization signals, wherein the first group of the synchronization signals includes a physical broadcast channel, PBCH, signal, and the second group of the synchronization signals includes a beam reference signal, BRS.
A polymer blend nanocomposite comprising polycarbonate (PC), polypropylene (PP) and multi-walled carbon nanotube (MWCNT), wherein the PC is present at a concentration ranging from 45 (w/w%) to 60 (w/w%), PP is present at a concentration ranging from 35 (w/w%) to 50 (w/w%) and MWCNT is present at a concentration ranging from 0.5 (w/w%) to 5% (w/w %).
A fiber structure comprising crimped staple fibers and heat-bonding conjugate staple fibers mixed in a weight ratio of 90/10 to 10/90, the heat-bonding conjugate staple fibers having, as a heat-bonding component disposed on a surface thereof, a thermoplastic resin having a melting point lower by 40°C or more than that of a thermoplastic resin constituting the crimped staple fibers, the fiber structure having scattered fixing points in which the heat-bonding conjugate staple fibers are heat-fused and intersect together and/or scattered fixing points in which the heat-bonding conjugate staple fibers and the crimped staple fibers are heat-fused and intersect together, the fiber structure having a thickness of 30 mm or more and a density of 10 kg/m 3 or more, the fiber structure having a laminated structure of three or more layers in at least a thicknesswise direction, wherein a hardness ratio between an intermediate layer portion and a surface layer portion defined when the fiber structure is equally divided into three portions in the thicknesswise direction of the fiber structure is 0.70 to 1.10.
A transition metal compound represented by the following Chemical Formula 1: in Chemical Formula 1, M is a Group 4 transition metal, X 1 and X 2 are each independently hydrogen; halogen; or C 1-20 alkyl; A is carbon, or silicon, R 11 and R 12 are each independently hydrogen; halogen; C 1-20 alkyl; C 2-20 alkoxyalkyl; or C 6-20 aryl; R 21 is methyl, R 22 is C 3-20 alkyl; C 3-20 alkoxyalkyl; or C 3-20 alkenyl, R 23 is unsubstituted C 6-20 aryl; or C 7-20 alkylaryl, R 24 and R 25 are each hydrogen; or R 24 and R 25 are connected with each other to form a C 3-10 cycloalkane ring, R 26 is C 1-20 alkyl, and R 27 is unsubstituted C 6-20 aryl; or C 7-20 alkylaryl. M is a Group 4 transition metal, X 1 and X 2 are each independently hydrogen; halogen; or C 1-20 alkyl; A is carbon, or silicon, R 11 and R 12 are each independently hydrogen; halogen; C 1-20 alkyl; C 2-20 alkoxyalkyl; or C 6-20 aryl; R 21 is methyl, R 22 is C 3-20 alkyl; C 3-20 alkoxyalkyl; or C 3-20 alkenyl, R 23 is unsubstituted C 6-20 aryl; or C 7-20 alkylaryl, R 24 and R 25 are each hydrogen; or R 24 and R 25 are connected with each other to form a C 3-10 cycloalkane ring, R 26 is C 1-20 alkyl, and R 27 is unsubstituted C 6-20 aryl; or C 7-20 alkylaryl.
A method for fundus image observation, the method using a processor of a computer, the method comprising: a first acquisition step of acquiring image group data including fluorescent angiographic images of a plurality of frames acquired through a fluorescent imaging procedure for an examinee's eye; a second acquisition step of selecting and setting at least one or more frames illustrating a desired contrast medium appearance as at least one or more key frames from the fluorescent angiographic images included in the image group data and obtaining key frame specification information for specifying the at least one or more key frames in the image group data; a list display step of displaying the key frames extracted from the image group data in list form on a display unit on the basis of the key frame specification information, wherein, in the first acquisition step, the image group data is acquired which includes at least a photographed image group being the fluorescent angiographic images of a plurality of frames photographed continuously at regular intervals, the image group data further includes one of the fluorescent angiographic images photographed at an output timing of a third trigger signal emitted during photographing of the photographed image data, and in the second acquisition step, the fluorescent angiographic image photographed at the output timing of the third trigger signal, whereby the fluorescent angiographic image being included in the photographed image group, is selected and set as the at least one or more key frames or a candidate therefor. a first acquisition step of acquiring image group data including fluorescent angiographic images of a plurality of frames acquired through a fluorescent imaging procedure for an examinee's eye; a second acquisition step of selecting and setting at least one or more frames illustrating a desired contrast medium appearance as at least one or more key frames from the fluorescent angiographic images included in the image group data and obtaining key frame specification information for specifying the at least one or more key frames in the image group data; a list display step of displaying the key frames extracted from the image group data in list form on a display unit on the basis of the key frame specification information, wherein, in the first acquisition step, the image group data is acquired which includes at least a photographed image group being the fluorescent angiographic images of a plurality of frames photographed continuously at regular intervals, the image group data further includes one of the fluorescent angiographic images photographed at an output timing of a third trigger signal emitted during photographing of the photographed image data, and in the second acquisition step, the fluorescent angiographic image photographed at the output timing of the third trigger signal, whereby the fluorescent angiographic image being included in the photographed image group, is selected and set as the at least one or more key frames or a candidate therefor.
Motorised casing (1; 1') of a household appliance for culinary preparation, comprising an outer case (3; 3') defining an inner housing and an electric motor with alternating current arranged in the inner housing , the electric motor with alternating current comprising a rotor carrying a driver mobile in rotation about an axis of rotation , and a stator , wherein the outer case (3; 3') comprises at least one first inner transverse abutment , and wherein the stator is held in the direction defined by the axis of rotation between said at least one first inner transverse abutment and at least one second inner transverse abutment , the outer case (3; 3') comprising said at least one second inner transverse abutment , the stator being held directly between said at least one first inner transverse abutment and said at least one second inner transverse abutment , characterised in that the stator comprises a first bracket and a second bracket mounted on either side of the stack of sheets about the axis of rotation , in that said at least one second inner transverse abutment is more flexible in the direction defined by the axis of rotation than said at least one first inner transverse abutment , in that the first bracket has a first end wall extending transversally with respect to the direction defined by the axis of rotation , in that the second bracket has a second end wall extending transversally with respect to the direction defined by the axis of rotation , in that said at least one first inner transverse abutment abuts against the first end wall of the first bracket and in that said at least one second inner transverse abutment abuts against the second end wall of the second bracket .
Electrical machining method, characterized by drilling of holes in a workpiece by means of a tool electrode , wherein the method comprises drilling holes in at least two different process conditions, - wherein first type holes are drilled into full workpiece material by electrical discharge machining with the tool electrode, whereby the workpiece material entirely surrounds the radial circumference of the tool electrode , and - wherein a second type hole is drilled by electrical discharge machining with the tool electrode into the workpiece material partially surrounding the electrode radial circumference, such that the second type hole connects two adjacent first type holes , and - wherein the holes are blind holes or through holes . - wherein first type holes are drilled into full workpiece material by electrical discharge machining with the tool electrode, whereby the workpiece material entirely surrounds the radial circumference of the tool electrode , and - wherein a second type hole is drilled by electrical discharge machining with the tool electrode into the workpiece material partially surrounding the electrode radial circumference, such that the second type hole connects two adjacent first type holes , and - wherein the holes are blind holes or through holes .
A light detection and ranging, LiDAR, system comprising: light sources configured to generate separate beams of light ; a lens array configured to receive the separate beams of light from the light sources and to collimate the separate beams of light , in both a horizontal direction and a vertical direction, into collimated outgoing light that is directed toward an examined area of interest; a mirror assembly comprising a first scanning mirror configured to move and horizontally sweep the collimated outgoing light across the examined area of interest along the horizontal direction and a second scanning mirror configured to move and vertically sweep the collimated outgoing light across the examined area of interest along the vertical direction; a polarizing beam splitter disposed between the lens array and the mirror assembly ; a light sensitive detector configured to sense reflection of at least part of the collimated outgoing light ; and one or more processors configured to determine a distance to one or more objects off which the at least part of the collimated outgoing light was reflected toward the light sensitive detector, the one or more processors configured to determine the distance based on the reflection of the at least part of the collimated outgoing light . light sources configured to generate separate beams of light ; a lens array configured to receive the separate beams of light from the light sources and to collimate the separate beams of light , in both a horizontal direction and a vertical direction, into collimated outgoing light that is directed toward an examined area of interest; a mirror assembly comprising a first scanning mirror configured to move and horizontally sweep the collimated outgoing light across the examined area of interest along the horizontal direction and a second scanning mirror configured to move and vertically sweep the collimated outgoing light across the examined area of interest along the vertical direction; a polarizing beam splitter disposed between the lens array and the mirror assembly ; a light sensitive detector configured to sense reflection of at least part of the collimated outgoing light ; and one or more processors configured to determine a distance to one or more objects off which the at least part of the collimated outgoing light was reflected toward the light sensitive detector, the one or more processors configured to determine the distance based on the reflection of the at least part of the collimated outgoing light .
A cryostat arrangement (1'; 1"; 1'''; 1''''), having a vacuum container and an object to be cooled, wherein the object to be cooled is arranged inside the vacuum container , wherein the vacuum container has a neck tube , which leads to the object to be cooled, wherein a cooling arm of a cold head is at least partially arranged in the neck tube , wherein a closed cavity , which is sealed off fluid-tight in relation to the object to be cooled, is formed around the cooling arm , wherein the cavity is at least partially filled with a cryogenic fluid in normal operation, and wherein a thermal coupling means is provided, suitable for thermal coupling of the cryogenic fluid in the cavity with the object to be cooled, wherein the cryostat arrangement (1'; 1"; 1'''; 1'''') comprises a pump device , to which the cavity is connected via an activatable valve and using which the cavity can be pumped out in the event of a drop of the cooling function of the cold head , and a monitoring unit is provided, which monitors the cooling function of the cold head , and is designed to automatically activate the pump device in the event of a drop of the cooling function of the cold head in such a way that the cavity is pumped out, characterized in that a pressure sensor is fluidically connected to the cavity , the output signal of which can be fed into the monitoring unit , and the monitoring unit is designed to activate the pump device to pump out the cavity as soon as the output signal of the pressure sensor exceeds a predefined first threshold value P max of 10kPa ≤ P max ≤ 50kPa .
A heater assembly for a cigarette-shaped electronic cigarette , comprising: a smoking vapor generation part including a first heater configured to generate smoking vapor by heating a portion of a cigarette inserted thereinto; and a smoky vapor generation part including a second heater configured to generate smoky vapor by heating a liquid material when the cigarette is puffed on; wherein the smoky vapor passes through the cigarette by a suction force generated when the cigarette is puffed on and then is inhaled concurrently with the smoking vapor, wherein the smoking vapor generation part includes: the first heater ; a heat insulating member disposed to surround an outer surface of the first heater ; and characterized in that a fixing member is disposed to surround an outer surface of the heat insulating member and press the heat insulating member against the outer surface of the first heater . a smoking vapor generation part including a first heater configured to generate smoking vapor by heating a portion of a cigarette inserted thereinto; and a smoky vapor generation part including a second heater configured to generate smoky vapor by heating a liquid material when the cigarette is puffed on; wherein the smoky vapor passes through the cigarette by a suction force generated when the cigarette is puffed on and then is inhaled concurrently with the smoking vapor, wherein the smoking vapor generation part includes: the first heater ; a heat insulating member disposed to surround an outer surface of the first heater ; and characterized in that a fixing member is disposed to surround an outer surface of the heat insulating member and press the heat insulating member against the outer surface of the first heater . the first heater ; a heat insulating member disposed to surround an outer surface of the first heater ; and characterized in that a fixing member is disposed to surround an outer surface of the heat insulating member and press the heat insulating member against the outer surface of the first heater .
A shell intended to be placed around a fragment-generating body of an ammunition , said shell comprising an inner wall having a geometry such that it can be positioned with shape matching with that of the body on which it is intended to be fastened, characterised in that the inner wall bears cells , each cell having a profile with a closed contour secured to the wall by a first end and extending radially at a distance from the wall , the cells being regularly angularly and longitudinally distributed around the inner wall so as to form a network covering the entire shell , the cells not being adjoining to each other, therefore beung separate from one another, all the way around their contour by a non-zero distance (d).
A secondary battery (100: 200; 300) configured such that an electrode assembly (110;220; 320) including a positive electrode , a separator , and a negative electrode is housed in a battery case together with an electrolyte solution, wherein the battery case is made of metal, and a conductive layer (151, 152, 153, 154;270) consisting of a conductive epoxy layer is formed on a part or the whole of the inner surface of the battery case coming into contact with the electrolyte solution.