mhurhangee/patent-ind-claim-en huggingface dataset:
A filter assembly which comprises a filter element for filtering a fluid, and a mount having at least one port , each of the filter element and the mount having interengaging connection formations by which the filter element and the mount can be detachably connected to one another, and the mount defining a flow path for fluid to flow between the port and the filter element when the filter element is connected to the mount, in which the mount includes a link element which can slide relative to the mount between a retracted position and a deployed position, the link element having one of a lug and an inclined ramp surface which is arranged around an axis , and the filter element having the other of the lug and the inclined ramp surface, and in which the lug and the ramp surface form a cam drive in which the lug is capable of engaging the inclined ramp surface as the filter element and the mount are brought together for assembly, and of sliding along the inclined ramp surface when the filter element is rotated relative to the mount to cause the link element to be drawn out of the mount towards its deployed position, and in which the filter element and the mount are arranged so that they are brought together by moving the filter element in a first direction (A) relative to the mount, the lug and the ramp surface arranged so that the link element moves from the retracted position to the deployed position in a second direction (B) which is opposite to the first direction, the link element moving axially away from the mount to the deployed position, and in which the connection formations on the mount are provided on the link element, and the connection formations on the mount and the filter element are unable to engage one another when the link element is in its retracted position. in which the mount includes a link element which can slide relative to the mount between a retracted position and a deployed position, the link element having one of a lug and an inclined ramp surface which is arranged around an axis , and the filter element having the other of the lug and the inclined ramp surface, and in which the lug and the ramp surface form a cam drive in which the lug is capable of engaging the inclined ramp surface as the filter element and the mount are brought together for assembly, and of sliding along the inclined ramp surface when the filter element is rotated relative to the mount to cause the link element to be drawn out of the mount towards its deployed position, and in which the filter element and the mount are arranged so that they are brought together by moving the filter element in a first direction (A) relative to the mount, the lug and the ramp surface arranged so that the link element moves from the retracted position to the deployed position in a second direction (B) which is opposite to the first direction, the link element moving axially away from the mount to the deployed position, and in which the connection formations on the mount are provided on the link element, and the connection formations on the mount and the filter element are unable to engage one another when the link element is in its retracted position.
A system comprising a sensor for measuring a skin parameter, the sensor comprising (i) a plurality of spatially separated light sources configured to provide light source light , and (ii) a detector configured at a first distance (d1) from each of the light sources , wherein the first distance (d1) is selected from the range of 5-80 mm, wherein the sensor comprises at least three light sources , wherein the light sources are configured to provide unpolarized light source light , wherein the sensor further comprises (iii) a sensor opening downstream in the beam of light propagating from the light sources and upstream in this beam of light of the detector for propagation of the light source light out of the sensor towards a skin of which a skin parameter is to be measured and for entrance of reflected sensor light into the sensor , wherein the light source light propagating out of the sensor opening is unpolarized light source light, and (iv) a sensor window , of a material transmissive for the light source light , configured downstream in the beam of light propagating from the light sources , configured upstream in this beam of light of the sensor opening , and configured upstream in this beam of light of the detector with a second distance (d2) to the sensor opening of at least 3 mm (i) a plurality of spatially separated light sources configured to provide light source light , and (ii) a detector configured at a first distance (d1) from each of the light sources , wherein the first distance (d1) is selected from the range of 5-80 mm, wherein the sensor comprises at least three light sources , wherein the light sources are configured to provide unpolarized light source light , wherein the sensor further comprises wherein the first distance (d1) is selected from the range of 5-80 mm, wherein the sensor comprises at least three light sources , wherein the light sources are configured to provide unpolarized light source light , wherein the sensor further comprises (iii) a sensor opening downstream in the beam of light propagating from the light sources and upstream in this beam of light of the detector for propagation of the light source light out of the sensor towards a skin of which a skin parameter is to be measured and for entrance of reflected sensor light into the sensor , wherein the light source light propagating out of the sensor opening is unpolarized light source light, and (iv) a sensor window , of a material transmissive for the light source light , configured downstream in the beam of light propagating from the light sources , configured upstream in this beam of light of the sensor opening , and configured upstream in this beam of light of the detector with a second distance (d2) to the sensor opening of at least 3 mm
An embossed air filter filtration medium for trapping dust in a stream of air, the embossed air filter filtration medium comprising: an air filter filtration medium provided with one or a plurality of porous films that include a fibril-formable polytetrafluoroethylene component (A), a non-fibril-forming and non-hot-melt-processable component (B), and a non-fibril-forming and hot-melt-processable component (C) having a melting point below 320°C; and a plurality of air-permeable support materials supporting the porous film, the surfaces of both sides of the air filter filtration medium being formed by two of the air-permeable support materials among the plurality of air-permeable support materials , and the air filter filtration medium being furnished with a plurality of projections (20A-20E) by undergoing an embossing process. an air filter filtration medium provided with one or a plurality of porous films that include a fibril-formable polytetrafluoroethylene component (A), a non-fibril-forming and non-hot-melt-processable component (B), and a non-fibril-forming and hot-melt-processable component (C) having a melting point below 320°C; and a plurality of air-permeable support materials supporting the porous film, the surfaces of both sides of the air filter filtration medium being formed by two of the air-permeable support materials among the plurality of air-permeable support materials , and the air filter filtration medium being furnished with a plurality of projections (20A-20E) by undergoing an embossing process.
A hot-forming press , comprising: a lower press assembly , movable along a vertical axis and comprising: a lower die ; and a lower hot-box portion , configured to receive the lower die ; an upper press assembly , movable along the vertical axis above the lower press assembly and comprising: an upper die ; and an upper hot-box portion , configured to receive the upper die so that the upper die is positioned opposite the lower die ; a lower translation mechanism , operatively coupled to the lower press assembly and configured to move the lower press assembly along the vertical axis; and an upper translation mechanism , configured to vertically move the upper press assembly along the vertical axis; wherein: the lower die and the upper die are configured to apply a forming pressure to a workpiece , received between the lower die and the upper die ; the lower hot-box portion and the upper hot-box portion are configured to heat the workpiece , received between the lower die and the upper die ; the lower translation mechanism is configured to apply a forming force to generate the forming pressure; and the upper translation mechanism is not configured to apply a forming force to generate the forming pressure. a lower press assembly , movable along a vertical axis and comprising: a lower die ; and a lower hot-box portion , configured to receive the lower die ; a lower die ; and a lower hot-box portion , configured to receive the lower die ; an upper press assembly , movable along the vertical axis above the lower press assembly and comprising: an upper die ; and an upper hot-box portion , configured to receive the upper die so that the upper die is positioned opposite the lower die ; an upper die ; and an upper hot-box portion , configured to receive the upper die so that the upper die is positioned opposite the lower die ; a lower translation mechanism , operatively coupled to the lower press assembly and configured to move the lower press assembly along the vertical axis; and an upper translation mechanism , configured to vertically move the upper press assembly along the vertical axis; wherein: the lower die and the upper die are configured to apply a forming pressure to a workpiece , received between the lower die and the upper die ; the lower hot-box portion and the upper hot-box portion are configured to heat the workpiece , received between the lower die and the upper die ; the lower translation mechanism is configured to apply a forming force to generate the forming pressure; and the upper translation mechanism is not configured to apply a forming force to generate the forming pressure. the lower die and the upper die are configured to apply a forming pressure to a workpiece , received between the lower die and the upper die ; the lower hot-box portion and the upper hot-box portion are configured to heat the workpiece , received between the lower die and the upper die ; the lower translation mechanism is configured to apply a forming force to generate the forming pressure; and the upper translation mechanism is not configured to apply a forming force to generate the forming pressure.
A wheel-shaped gear cutting tool , in particular a skiving wheel, for machining sets of teeth, in particular in the kinematics of the power skiving method, comprising cutting teeth , with cutting edges being provided on the side of said cutting teeth which, during machining engagement, faces the set of teeth to be machined, characterised in that a first cutting edge of a cutting tooth is formed by the intersection of a tooth flank of the cutting tooth with a first flat surface belonging to the rake face of said first cutting edge, the normal vector (n R ) of said first surface at the first cutting edge having an orientation different from the orientation of the normal vector (n L ) towards a second flat surface , whose intersection with the other tooth flank of the cutting tooth forms a second cutting edge of the cutting tooth and which belongs to the rake face of the second cutting edge , wherein the normal vector (n L ) towards the second surface starts at the second cutting edge at the same radial distance from the axis of rotation (C) of the gear cutting tool as the normal vector (n R ) toward the first surface profile .
A sustained release pharmaceutical formulation comprising: a therapeutic agent for systemic administration, the therapeutic agent comprising a protein active agent and at least 60 elastin-like peptide (ELP) structural units of SEQ ID NO: 3, and wherein the protein active agent is a Glucagon-like peptide (GLP)-2 receptor agonist comprising the amino acid sequence of SEQ ID NO: 70 . a therapeutic agent for systemic administration, the therapeutic agent comprising a protein active agent and at least 60 elastin-like peptide (ELP) structural units of SEQ ID NO: 3, and wherein the protein active agent is a Glucagon-like peptide (GLP)-2 receptor agonist comprising the amino acid sequence of SEQ ID NO: 70 .
A method of driving an electric motor including a plurality of windings (A, B, C), the method including: - sensing currents ( i a * , i b * , i c * ) in the motor windings (A, B, C), - generating a motor rotation angle signal (θ) from the currents sensed ( i a * , i b * , i c * ) , - generating motor control voltages ( V a , V b , V c ) as a function of said motor rotation angle signal (θ), - driving the motor windings with motor drive voltages ( V a * , V b * , V c * ) obtained by injecting into said motor control voltages ( V a , V b , V c ) injection pulses ( V ainj , V binj , V cinj ), wherein said currents sensed ( i a * , i b * , i c * ) include torque components ( i a0 , ib 0 , i c0 ) and injection components ( i ainj , i binj , i cinj ), wherein the driven motor (M) includes three windings (A, B, C) energized in three respective phases, and the method being characterised by - injecting injection pulses ( V ainj , V binj , V cinj ) in two of said three phases while refraining from injecting injection pulses in the third of said three phases, wherein the injection pulses ( V ainj , V binj , V cinj ) comprise pairs of injection pulses, each pair including injection pulses (V B , V C ) of opposed polarities, and - generating said motor rotation angle signal (θ) as a function of the injection component ( i ainj ) of the current sensed ( i a * ) in the third of said three phases. - sensing currents ( i a * , i b * , i c * ) in the motor windings (A, B, C), - generating a motor rotation angle signal (θ) from the currents sensed ( i a * , i b * , i c * ) , - generating motor control voltages ( V a , V b , V c ) as a function of said motor rotation angle signal (θ), - driving the motor windings with motor drive voltages ( V a * , V b * , V c * ) obtained by injecting into said motor control voltages ( V a , V b , V c ) injection pulses ( V ainj , V binj , V cinj ), wherein said currents sensed ( i a * , i b * , i c * ) include torque components ( i a0 , ib 0 , i c0 ) and injection components ( i ainj , i binj , i cinj ), wherein the driven motor (M) includes three windings (A, B, C) energized in three respective phases, and the method being characterised by - injecting injection pulses ( V ainj , V binj , V cinj ) in two of said three phases while refraining from injecting injection pulses in the third of said three phases, wherein the injection pulses ( V ainj , V binj , V cinj ) comprise pairs of injection pulses, each pair including injection pulses (V B , V C ) of opposed polarities, and - generating said motor rotation angle signal (θ) as a function of the injection component ( i ainj ) of the current sensed ( i a * ) in the third of said three phases.
A detergent composition comprising: (a) at least one surfactant system, at least one soap, or any mixtures thereof; wherein the composition comprises from 10 to 60 weight% surfactants and wherein the surfactant system comprises a mixture of linear alkylbenzenesulphonate (LAS), sodium laureth sulfate (SLES) and alcohol ethoxylates (AEO); and (b) a polypeptide having lipase activity and having at least 85% sequence identity to the mature polypeptide of SEQ ID NO: 2, wherein the detergent composition has improved cleaning activity at pH 8 compared to the same detergent composition with 0% surfactant. (a) at least one surfactant system, at least one soap, or any mixtures thereof; wherein the composition comprises from 10 to 60 weight% surfactants and wherein the surfactant system comprises a mixture of linear alkylbenzenesulphonate (LAS), sodium laureth sulfate (SLES) and alcohol ethoxylates (AEO); and (b) a polypeptide having lipase activity and having at least 85% sequence identity to the mature polypeptide of SEQ ID NO: 2, wherein the detergent composition has improved cleaning activity at pH 8 compared to the same detergent composition with 0% surfactant.
A method of making filtered cigarettes (FC) each comprising a cigarette (C) and a filter connected by a tip paper and having a double wrapper structure at part of the circumference of the cigarette (C), comprising: a step of forming a cigarette rod (CR) of twice the length of the cigarette (C), the cigarette rod (CR) comprising a wrapper and a smokable filler which fills within the wrapper, a wrapping step of wrapping at least one outer wrapper (X) around the cigarette rod (CR), a first cutting step of cutting the cigarette rod (CR) with the outer wrapper (X) wrapped around into two equal lengths, thereby forming two cigarettes (C) each having a double wrapper structure, a turning-around step of turning the two cigarettes (C) around, respectively, a step of placing a filter plug between the turned-around two cigarettes (C) and bringing the turned-around two cigarettes (C) into close contact with the filter plug, a step of wrapping a double tip paper (DTP) of twice the width of the tip paper around the turned-around two cigarettes (C) with the filter plug between, the width of the tip paper being a dimension along the length of the cigarette (C), thereby forming a double filtered-cigarette of twice the length of the filtered cigarette (FC), and a second cutting step of cutting the double filtered-cigarette into individual filtered cigarettes (FC), characterized in that in the wrapping step, two outer wrappers (X, Y) are wrapped around the cigarette rod (CR) at positions equally distanced from the axial center of the cigarette rod (CR), and in the first cutting step, the cigarette rod (CR) is cut at the axial center. a step of forming a cigarette rod (CR) of twice the length of the cigarette (C), the cigarette rod (CR) comprising a wrapper and a smokable filler which fills within the wrapper, a wrapping step of wrapping at least one outer wrapper (X) around the cigarette rod (CR), a first cutting step of cutting the cigarette rod (CR) with the outer wrapper (X) wrapped around into two equal lengths, thereby forming two cigarettes (C) each having a double wrapper structure, a turning-around step of turning the two cigarettes (C) around, respectively, a step of placing a filter plug between the turned-around two cigarettes (C) and bringing the turned-around two cigarettes (C) into close contact with the filter plug, a step of wrapping a double tip paper (DTP) of twice the width of the tip paper around the turned-around two cigarettes (C) with the filter plug between, the width of the tip paper being a dimension along the length of the cigarette (C), thereby forming a double filtered-cigarette of twice the length of the filtered cigarette (FC), and a second cutting step of cutting the double filtered-cigarette into individual filtered cigarettes (FC), characterized in that in the wrapping step, two outer wrappers (X, Y) are wrapped around the cigarette rod (CR) at positions equally distanced from the axial center of the cigarette rod (CR), and in the first cutting step, the cigarette rod (CR) is cut at the axial center.
A method of communication for an apparatus, comprising: determining at least one sensor capability of a responder, generating a request for vehicle sensor information, wherein the generation of the request is based on the at least one sensor capability of a responder; transmitting the request via a vehicle communication link; and receiving a response to the request via the vehicle communication link, wherein determining the at least one sensor capability comprises: receiving at least one vehicle information message; and identifying the at least one sensor capability based on the at least one vehicle information message. determining at least one sensor capability of a responder, generating a request for vehicle sensor information, wherein the generation of the request is based on the at least one sensor capability of a responder; transmitting the request via a vehicle communication link; and receiving a response to the request via the vehicle communication link, wherein determining the at least one sensor capability comprises: receiving at least one vehicle information message; and identifying the at least one sensor capability based on the at least one vehicle information message. receiving at least one vehicle information message; and identifying the at least one sensor capability based on the at least one vehicle information message.
Method for regulating a hot-pressing device, having a first tool component and a second tool component for hot-pressing preforms made of a fibre-containing material, wherein - the at least one first tool component has a first tool body , which has on at least one side at least one first forming device , which has on its surface first contact surfaces for a preform to be received, - the at least one second tool component has a second tool body , the second tool body having on at least one side at least one second forming device , which is designed to be complementary to the at least one first forming device and has on its surface second contact surfaces for a preform to be received, and - a cavity for a preform to be received is formed in each case between the first contact surfaces and the second contact surfaces during the hot pressing, comprising the following steps: - detecting the surface temperature of the at least one first forming device , - placing at least one preform on the first contact surfaces of the at least one first forming device , - closing the hot pressing device by relative displacement of the first tool component and the second tool component , wherein the at least one preform comes into contact with the second contact surfaces of the at least one second forming device , and - pressing the first tool component and the second tool component until the first contact surfaces and the second contact surfaces form a closed cavity, characterized in that - the closing speed for closing the hot pressing device is adapted to the surface temperature of the cavity in accordance with the evaporating medium from the preform. - the at least one first tool component has a first tool body , which has on at least one side at least one first forming device , which has on its surface first contact surfaces for a preform to be received, - the at least one second tool component has a second tool body , the second tool body having on at least one side at least one second forming device , which is designed to be complementary to the at least one first forming device and has on its surface second contact surfaces for a preform to be received, and - a cavity for a preform to be received is formed in each case between the first contact surfaces and the second contact surfaces during the hot pressing, - detecting the surface temperature of the at least one first forming device , - placing at least one preform on the first contact surfaces of the at least one first forming device , - closing the hot pressing device by relative displacement of the first tool component and the second tool component , wherein the at least one preform comes into contact with the second contact surfaces of the at least one second forming device , and - pressing the first tool component and the second tool component until the first contact surfaces and the second contact surfaces form a closed cavity, - the closing speed for closing the hot pressing device is adapted to the surface temperature of the cavity in accordance with the evaporating medium from the preform.