mhurhangee/patent-ind-claim-en huggingface dataset:
A laundry treatment machine comprising a cabinet housing a chamber for treating laundry, and a porthole movable between an open position for providing access to the chamber and a closed position for closing the chamber , wherein said porthole comprises a closure portion having the function of closing and opening the chamber , said closure portion being mounted to the cabinet , wherein said closure portion comprises an inner frame facing said cabinet , and an outer frame on the side opposite said cabinet when said porthole is in closed position, and a bowl sandwiched between said inner frame and outer frame , wherein said porthole further comprises a finishing portion associated with the closure portion , and fixed to said outer frame , wherein said finishing portion is fixed to said outer frame through at least one rivet-like fastener placed in an internal chamber defined by the closure portion, wherein said internal chamber is defined by said inner frame and said outer frame .
A gear device having a bearing retaining mechanism , comprising: a first member having an inner peripheral surface including an internal screw portion ; a rolling member ; a retainer holding the rolling member ; a crankshaft ; a restriction member including at least one of a first restriction member and a second restriction member supported on the first member , the restriction member including an external screw portion screwed on the internal screw portion , characterized in that the bearing retaining mechanism further composing a second member disposed on the inner peripheral surface ; the rolling member rolling on a rolling surface formed on the second member ; the crankshaft being rotatably supported on the second member via the rolling member , and the second member is disposed so as to leave a gap between the second member and the restriction member . a first member having an inner peripheral surface including an internal screw portion ; a rolling member ; a retainer holding the rolling member ; a crankshaft ; a restriction member including at least one of a first restriction member and a second restriction member supported on the first member , the restriction member including an external screw portion screwed on the internal screw portion , characterized in that the bearing retaining mechanism further composing a second member disposed on the inner peripheral surface ; the rolling member rolling on a rolling surface formed on the second member ; the crankshaft being rotatably supported on the second member via the rolling member , and the second member is disposed so as to leave a gap between the second member and the restriction member .
Screw-in fixing plug having an external thread for screwing the screw-in fixing plug into a board-like material, having a main body which extends along a longitudinal axis (L) and on which the external thread is arranged, the main body having at its rear end a tool receiver having a cross-shaped opening which forms four engagement regions for a cross-shaped blade of a rotary tool, wherein longitudinally extending ribs are formed between the engagement regions , at least one of the ribs having a groove-like recess which is arranged centrally on the rib between two engagement regions , the depth (t) of the groove-like recess decreasing towards the front end of the screw-in fixing plug, wherein the base of the groove-like recess runs at an angle to the longitudinal axis (L), characterised in that the angle of inclination (α, β) between the base of the groove-like recess and the longitudinal axis (L) is from 13° to 20°.
Closed electric motor comprising: - a housing delineating an interior compartment defining an interior volume of gas , the housing comprising a casing of generally cylindrical shape along a central axis (A-A'), whose front and rear openings are closed by front and rear flanges respectively, the casing comprising an inner wall delineating the interior compartment and an outer wall , - means for converting the electrical energy received by the motor into mechanical energy, the conversion means comprising a stator and a rotor , the stator comprising at least coils , - means for liquid cooling the interior compartment of the motor , provided in the outer wall of the casing , and - means of thermal coupling between the interior compartment and the means for liquid cooling, the means of thermal coupling comprise a heat exchanger mounted on the housing in the interior compartment , the exchanger including an annular support along the central axis (A-A') applied over the inner wall of the casing of the housing and a plurality of fins projecting radially towards the central axis (A-A') from an inner surface of the support , characterised in that the fins of the plurality of fins are spaced angularly over substantially the entire circumference of the inner surface of the support . - a housing delineating an interior compartment defining an interior volume of gas , the housing comprising a casing of generally cylindrical shape along a central axis (A-A'), whose front and rear openings are closed by front and rear flanges respectively, the casing comprising an inner wall delineating the interior compartment and an outer wall , - means for converting the electrical energy received by the motor into mechanical energy, the conversion means comprising a stator and a rotor , the stator comprising at least coils , - means for liquid cooling the interior compartment of the motor , provided in the outer wall of the casing , and - means of thermal coupling between the interior compartment and the means for liquid cooling,
A patient interface for delivering pressurized breathable gas to a patient, the patient interface comprising: a sealing portion made from silicone and adapted to form a seal with the patient's face, the sealing portion comprising: an opening adapted to receive the pressurized breathable gas; an outer sealing margin configured to seal with the patient's face; and a transition region between the opening and the outer sealing margin that gradually increases in size from the opening to the outer sealing margin, wherein the opening defines an interior surface configured to be in communication with the pressurized breathable gas in use, and the outer sealing margin is formed as a continuous extension of the interior surface, wherein the outer sealing margin comprises: a nose tip engagement portion adapted to form a seal with the patient's nose tip; an upper lip engagement portion adapted to form a seal with the patient's upper lip and/or base of the patient's nares; and nostril engagement flaps adapted to form a seal with the patient's nares, wherein the sealing portion is constructed such that the nose tip engagement portion, the upper lip engagement portion, and the nostril engagement flaps are all configured to extend or curve outwardly from a supporting wall of the sealing portion defining an air path. an opening adapted to receive the pressurized breathable gas; an outer sealing margin configured to seal with the patient's face; and a transition region between the opening and the outer sealing margin that gradually increases in size from the opening to the outer sealing margin, wherein the opening defines an interior surface configured to be in communication with the pressurized breathable gas in use, and the outer sealing margin is formed as a continuous extension of the interior surface, wherein the outer sealing margin comprises: a nose tip engagement portion adapted to form a seal with the patient's nose tip; an upper lip engagement portion adapted to form a seal with the patient's upper lip and/or base of the patient's nares; and nostril engagement flaps adapted to form a seal with the patient's nares, wherein the sealing portion is constructed such that the nose tip engagement portion, the upper lip engagement portion, and the nostril engagement flaps are all configured to extend or curve outwardly from a supporting wall of the sealing portion defining an air path. a nose tip engagement portion adapted to form a seal with the patient's nose tip; an upper lip engagement portion adapted to form a seal with the patient's upper lip and/or base of the patient's nares; and nostril engagement flaps adapted to form a seal with the patient's nares, wherein the sealing portion is constructed such that the nose tip engagement portion, the upper lip engagement portion, and the nostril engagement flaps are all configured to extend or curve outwardly from a supporting wall of the sealing portion defining an air path.
A wireless transmit/receive unit, WTRU, comprising: an antenna ; and a processor configured to monitor a plurality of downlink component carriers for control information, wherein the processor is further configured to: implement discontinuous reception, DRX, for the plurality of downlink component carriers, aggregate feedback for the plurality of downlink component carriers, and transmit the aggregated feedback on a component carrier, wherein a single DRX inactivity timer is used for all of the plurality of downlink component carriers. an antenna ; and a processor configured to monitor a plurality of downlink component carriers for control information, wherein the processor is further configured to: implement discontinuous reception, DRX, for the plurality of downlink component carriers, aggregate feedback for the plurality of downlink component carriers, and transmit the aggregated feedback on a component carrier, wherein a single DRX inactivity timer is used for all of the plurality of downlink component carriers.
A formwork element having theft protection, wherein a base layer forms at least one surface of said formwork element , wherein at least one signal module is provided for communicating with at least one base station, said base layer being watertight, and wherein an at least partially porous, concrete-repellent separating layer is disposed above the base layer and said separating layer comprises a smooth surface configured to face towards hardening concrete, characterized in that said separating layer comprising pores formed such that the pores can take up a separating agent emerging on the smooth surface , thereby allowing simple and clean dismantling and that a separating agent reservoir layer , in which the separating agent is stored to be delivered to the separating layer , is arranged between said base layer and said separating layer , said separating agent reservoir layer being formed such that, after some dismantling events, more separating agent can continue to diffuse from the separating agent reservoir layer into the separating layer to replace the separating agent that was consumed.
A method for allocating a radio frequency resource to a first device connected to a first radio access network, said radio frequency resource being shared between said first device and at least one second device connected to a second radio access network, characterized in that the method comprises the following steps executed by the first device: - obtaining (S200) information representative of a usage of said radio frequency resource by said second device; - obtaining (S210) a threshold value of a collision rate acceptable for the second device by obtaining at least a first threshold value and a second threshold value of a collision rate acceptable for the second device, said first and second threshold values each being associated with a spatial zone or a level of interference signal and selecting said one threshold value among said first and second threshold values; - determining (S212) a value representative of an estimated collision rate as experienced by the second device for at least one frequency resource allocation of the first device from the obtained information representative of the usage of said radio frequency resource by said second device; - using (S216) said at least one frequency resource allocation for the first device in the case where the determined value is below the obtained threshold value. - obtaining (S200) information representative of a usage of said radio frequency resource by said second device; - obtaining (S210) a threshold value of a collision rate acceptable for the second device by obtaining at least a first threshold value and a second threshold value of a collision rate acceptable for the second device, said first and second threshold values each being associated with a spatial zone or a level of interference signal and selecting said one threshold value among said first and second threshold values; - determining (S212) a value representative of an estimated collision rate as experienced by the second device for at least one frequency resource allocation of the first device from the obtained information representative of the usage of said radio frequency resource by said second device; - using (S216) said at least one frequency resource allocation for the first device in the case where the determined value is below the obtained threshold value.
A nonwoven fabric, comprising: (i) a first outermost spunbond layer comprising a first plurality of continuous fibers that are thermally fused and compacted against one another and define a microporous film on an outermost surface of the nonwoven fabric, the first plurality of continuous fibers comprises a first polymeric composition having a first melting point; (ii) a second outermost spunbond layer comprising a second plurality of continuous fibers; and (iii) at least a first meltblown layer and/or melt-fibrillated layer comprising a first plurality of meltblown fibers and/or melt-fibrillated fibers having a substantially non-deformed configuration and being located directly or indirectly between the first outermost spunbond layer and the second outermost spunbond layer, the first plurality of meltblown fibers and/or melt-fibrillated fibers comprises a third polymeric composition having a third melting point; wherein the first melting point is lower than the third melting point; wherein the first outermost spunbond layer, the second outermost spunbond layer, or both comprise a thermally area-bonded layer at a nip pressure from 262.690 to 525.380 kN/m (1500 to 3000 pounds per linear inch). (i) a first outermost spunbond layer comprising a first plurality of continuous fibers that are thermally fused and compacted against one another and define a microporous film on an outermost surface of the nonwoven fabric, the first plurality of continuous fibers comprises a first polymeric composition having a first melting point; (ii) a second outermost spunbond layer comprising a second plurality of continuous fibers; and (iii) at least a first meltblown layer and/or melt-fibrillated layer comprising a first plurality of meltblown fibers and/or melt-fibrillated fibers having a substantially non-deformed configuration and being located directly or indirectly between the first outermost spunbond layer and the second outermost spunbond layer, the first plurality of meltblown fibers and/or melt-fibrillated fibers comprises a third polymeric composition having a third melting point; wherein the first melting point is lower than the third melting point;
A container for radioactive waste comprising: a steel outer wall a steel inner wall a steel bottom a steel lid a volume of quartz sand inside the container at least one inner vessel (24 1 , 24 2 , 124) coated at least partially with quartz sand and radioactive waste inside the vessel (24 1 , 24 2 , 124) characterized in that it also comprises a lead layer between the two steel walls . a steel outer wall a steel inner wall a steel bottom a steel lid a volume of quartz sand inside the container at least one inner vessel (24 1 , 24 2 , 124) coated at least partially with quartz sand and radioactive waste inside the vessel (24 1 , 24 2 , 124) characterized in that it also comprises a lead layer between the two steel walls .
A computer implemented method for determining specularity, the method comprising: dividing, by one or more computing devices , an object into a set of polygon-shaped surface geometry patches; for each particular patch of the set of polygon-shaped surface geometry patches, determining, by the one or more computing devices, a curve fit model by: identifying a set of images of the object captured at different times from different orientations; determining an average intensity value of the particular patch for each image of the set of images; and determining an angle value of the particular patch for each image of the set of images, the angle based on at least a direction of a camera that captured the particular image; fitting the average intensity value and the angle value for each image of the set of images to a curve; and using, by the one or more computing devices, the curve fit model for each particular patch to determine a degree of shininess for that particular patch. dividing, by one or more computing devices , an object into a set of polygon-shaped surface geometry patches; for each particular patch of the set of polygon-shaped surface geometry patches, determining, by the one or more computing devices, a curve fit model by: identifying a set of images of the object captured at different times from different orientations; determining an average intensity value of the particular patch for each image of the set of images; and determining an angle value of the particular patch for each image of the set of images, the angle based on at least a direction of a camera that captured the particular image; fitting the average intensity value and the angle value for each image of the set of images to a curve; and identifying a set of images of the object captured at different times from different orientations; determining an average intensity value of the particular patch for each image of the set of images; and determining an angle value of the particular patch for each image of the set of images, the angle based on at least a direction of a camera that captured the particular image; fitting the average intensity value and the angle value for each image of the set of images to a curve; and using, by the one or more computing devices, the curve fit model for each particular patch to determine a degree of shininess for that particular patch.
A method of forming a device, comprising: providing a substrate; forming a first ILD layer above the substrate, wherein the first ILD layer has a top surface and a first opening; depositing a first metal liner in the first opening; forming a first metallization level in the first opening; forming a first cap layer on the top surface of the first ILD layer; forming a second ILD layer above the first cap layer, wherein the second ILD layer has a top surface and a second opening extending into the first metallization level; depositing a second metal liner on the top surface and in the second opening; forming a second metallization level in the second opening; performing a CMP of the second metallization level, wherein a top of the second metallization level is co-planar with a top of the second metal liner; forming a second cap layer on the second metallization level; forming a recess in the second metallization level below a top surface of the second ILD layer before the forming said second cap layer on the second metallization level; and removing the second metal liner from the top surface of the second ILD layer. providing a substrate; forming a first ILD layer above the substrate, wherein the first ILD layer has a top surface and a first opening; depositing a first metal liner in the first opening; forming a first metallization level in the first opening; forming a first cap layer on the top surface of the first ILD layer; forming a second ILD layer above the first cap layer, wherein the second ILD layer has a top surface and a second opening extending into the first metallization level; depositing a second metal liner on the top surface and in the second opening; forming a second metallization level in the second opening; performing a CMP of the second metallization level, wherein a top of the second metallization level is co-planar with a top of the second metal liner; forming a second cap layer on the second metallization level; forming a recess in the second metallization level below a top surface of the second ILD layer before the forming said second cap layer on the second metallization level; and removing the second metal liner from the top surface of the second ILD layer.
A negative electrode for a lithium ion battery comprising a negative electrode active material layer, wherein the negative electrode active material layer includes a non-bound body of a mixture containing silicon and/or silicon compound particles and carbon-based negative electrode active material particles in a state of being dispersed and mixed to each other, a volume average particle size as measured by the method according to the description of the silicon and/or silicon compound particles is 0.01 to 10 μm, a volume average particle size as measured by the method according to the description of the carbon-based negative electrode active material particles is 15 to 50 μm,and a mass mixing ratio of the total of the silicon and silicon compound particles contained in the mixture and the carbon-based negative electrode active material particles is 5 : 95 to 45 : 55.
A chip , comprising: at least one signal conductor (USB_Inp, USB_Outp); and a filter including a plurality of ground conductors , wherein the at least one signal conductor is configured to carry a signal that conforms to an interface protocol and wherein the plurality of ground conductors at least partially surround the at least one signal conductor on a same die, the plurality of ground conductors to filter electromagnetic interference generated by the signal to be carried by the at least one signal conductor. at least one signal conductor (USB_Inp, USB_Outp); and a filter including a plurality of ground conductors , wherein the at least one signal conductor is configured to carry a signal that conforms to an interface protocol and wherein the plurality of ground conductors at least partially surround the at least one signal conductor on a same die, the plurality of ground conductors to filter electromagnetic interference generated by the signal to be carried by the at least one signal conductor.
Method for producing an ophthalmic lens , comprising the steps of: a) providing a first mould half , which has a support body having an interior space and having a first end in which there is formed an opening which communicates with the interior space , and has a film arranged directly or by means of at least one intermediate element on the first end and covering the opening , and a second mould half , wherein the film is dielectric; b) bringing the first mould half and the second mould half into a spacing state, in which the first mould half and the second mould half are arranged spaced apart from one another; c) changing the curvature of the film by exposing the film to an electric field; d) applying a curable liquid to the film ; e) bringing the first mould half and the second mould half into a proximity state, in which the first mould half and the second mould half are brought together so that the liquid is delimited by both the first mould half and the second mould half ; f) curing the liquid, thereby producing the lens . a) providing a first mould half , which has a support body having an interior space and having a first end in which there is formed an opening which communicates with the interior space , and has a film arranged directly or by means of at least one intermediate element on the first end and covering the opening , and a second mould half , wherein the film is dielectric; b) bringing the first mould half and the second mould half into a spacing state, in which the first mould half and the second mould half are arranged spaced apart from one another; c) changing the curvature of the film by exposing the film to an electric field; d) applying a curable liquid to the film ; e) bringing the first mould half and the second mould half into a proximity state, in which the first mould half and the second mould half are brought together so that the liquid is delimited by both the first mould half and the second mould half ; f) curing the liquid, thereby producing the lens .